mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising detecting in a biological sample from a human patient having or suspected of having cancer the presence of a polypeptide having ROS1 kinase activity and detecting in the biological sample the presence of a mutant EGFR polypeptide that has increased kinase activity and/or renders a tumor cell sensitive to one or more EGFR inhibitors.
A composition for topical application comprising a polyaphron dispersion, wherein the polyaphron dispersion comprises a continuous phase, a discontinuous phase and crisaborole.
A method for coating electrodes of lithium-based electrical energy storage elements, in which lithium is introduced into a respective electrode in such an amount that irreversible lithium losses that occur during discharging and charging processes are fully compensated for with 1% - 20% of the electrode capacity or the total lithium amount required for lithiation of the electrode is provided with 101% - 120% of the electrode capacity, wherein lithium is applied or introduced in an amount corresponding to 1% to 120% of the capacity of the electrode of the respective electrical energy storage element, and also the molten metallic lithium is used in liquid phase during application to a surface or introduction into a respective electrode material, wherein before the lithium is introduced, a layer that is formed with a lithiophilic material is applied or formed between the lithium and the surface of electrode material and/or a surface of a temporary substrate to which a lithium layer is applied, and a surface of the electrode material and/or of a temporary substrate is coated with the respective lithiophilic material and liquid lithium is subsequently applied with a layer thickness which is constant over the respective surface, and in the case of a coating of a surface of a temporary substrate after the application of the lithium layer, this surface is brought into touching contact with the surface of the respective electrode and, as a result of elevated temperature, acting pressure and/or the action of an electric field, the lithium layer is transferred from the surface of the temporary substrate to a surface of the electrode after renewed liquefaction. lithium is applied or introduced in an amount corresponding to 1% to 120% of the capacity of the electrode of the respective electrical energy storage element, and also the molten metallic lithium is used in liquid phase during application to a surface or introduction into a respective electrode material, wherein before the lithium is introduced, a layer that is formed with a lithiophilic material is applied or formed between the lithium and the surface of electrode material and/or a surface of a temporary substrate to which a lithium layer is applied, and a surface of the electrode material and/or of a temporary substrate is coated with the respective lithiophilic material and liquid lithium is subsequently applied with a layer thickness which is constant over the respective surface, and in the case of a coating of a surface of a temporary substrate after the application of the lithium layer, this surface is brought into touching contact with the surface of the respective electrode and, as a result of elevated temperature, acting pressure and/or the action of an electric field, the lithium layer is transferred from the surface of the temporary substrate to a surface of the electrode after renewed liquefaction.
A welding system , comprising: power conversion circuitry configured to: output welding-type power to a weld circuit; and output preheating power to a preheater; and the welding system being characterised by further comprising: control circuitry configured to: define a first one of a plurality of weld schedules based on a second one of the plurality of weld schedules, wherein the first one of the plurality of weld schedules comprises a first welding output power and a first preheating output power, and the second one of the plurality of weld schedules comprises a second welding output power and a second preheating output power; receive an input selecting one of the plurality of weld schedules, each of the plurality of weld schedules specifying a combination of a welding-type output power and a preheating output power; and control the power conversion circuitry to output the welding-type power and the preheating power based on the selected one of the plurality of weld schedules. output welding-type power to a weld circuit; and output preheating power to a preheater; and the welding system being characterised by further comprising: control circuitry configured to: define a first one of a plurality of weld schedules based on a second one of the plurality of weld schedules, wherein the first one of the plurality of weld schedules comprises a first welding output power and a first preheating output power, and the second one of the plurality of weld schedules comprises a second welding output power and a second preheating output power; receive an input selecting one of the plurality of weld schedules, each of the plurality of weld schedules specifying a combination of a welding-type output power and a preheating output power; and control the power conversion circuitry to output the welding-type power and the preheating power based on the selected one of the plurality of weld schedules. define a first one of a plurality of weld schedules based on a second one of the plurality of weld schedules, wherein the first one of the plurality of weld schedules comprises a first welding output power and a first preheating output power, and the second one of the plurality of weld schedules comprises a second welding output power and a second preheating output power; receive an input selecting one of the plurality of weld schedules, each of the plurality of weld schedules specifying a combination of a welding-type output power and a preheating output power; and control the power conversion circuitry to output the welding-type power and the preheating power based on the selected one of the plurality of weld schedules.
Method for hygienic operation of an ion exchanger , particularly in water treatment, in which the ion exchanger is regenerated by means of a regeneration agent solution during a regeneration phase, characterized in that chlorine dioxide is generated in situ in the regeneration agent solution and passed through the ion exchanger , wherein a chlorite component is metered into the regeneration agent solution , and wherein the regeneration agent solution that contains chlorite is electrolyzed before being passed through the ion exchanger 10, thereby producing chlorine dioxide.
A compound of formula (I), wherein R 1 is , wherein R 5 is cyano, C 1-6 alkyl, halogen, haloC 1-6 alkyl or nitro; X is N or CH; R 2 and R 3 are independently selected from H, C 1-6 alkyl, C 3-7 cycloalkyl, haloC 1-6 alkyl, or R 2 and R 3 together with the carbon they are attached to form C 3-7 cycloalkyl; R 4 is heterocyclyl, heterocyclylamino, heterocyclylC 1-6 alkylamino, (C 1-6 alkyl) 2 aminoC 1-6 alkylamino, aminoC 3-7 cycloalkylamino, [(C 1-6 alkyl) 2 aminoC 1-6 alkyl]C 3-7 cycloalkylamino, aminoC 3-7 cycloalkylC 1-6 alkylamino or aminoC 1-6 alkylamino; or a pharmaceutically acceptable salt, enantiomer or diastereomer thereof. R 1 is , wherein R 5 is cyano, C 1-6 alkyl, halogen, haloC 1-6 alkyl or nitro; X is N or CH; R 5 is cyano, C 1-6 alkyl, halogen, haloC 1-6 alkyl or nitro; X is N or CH; R 2 and R 3 are independently selected from H, C 1-6 alkyl, C 3-7 cycloalkyl, haloC 1-6 alkyl, or R 2 and R 3 together with the carbon they are attached to form C 3-7 cycloalkyl; R 4 is heterocyclyl, heterocyclylamino, heterocyclylC 1-6 alkylamino, (C 1-6 alkyl) 2 aminoC 1-6 alkylamino, aminoC 3-7 cycloalkylamino, [(C 1-6 alkyl) 2 aminoC 1-6 alkyl]C 3-7 cycloalkylamino, aminoC 3-7 cycloalkylC 1-6 alkylamino or aminoC 1-6 alkylamino; or a pharmaceutically acceptable salt, enantiomer or diastereomer thereof.
Fused grains, in which: - said grains comprise a matrix of the zirconiaspinel eutectic coating inclusions composed essentially of a zirconia phase or of a spinel phase, - said grains exhibit the following overall chemical composition, as percentages by weight expressed in the form of oxides: ∘ more than 45.0% and less than 95.0% of ZrO 2 , ∘ more than 3.0% and less than 40.0% of Al 2 O 3 , ∘ more than 1.0% and less than 20.0% of MgO, ZrO 2 , Al 2 O 3 and MgO together represent at least 95.0% of the weight of said grains. - said grains comprise a matrix of the zirconiaspinel eutectic coating inclusions composed essentially of a zirconia phase or of a spinel phase, - said grains exhibit the following overall chemical composition, as percentages by weight expressed in the form of oxides: ∘ more than 45.0% and less than 95.0% of ZrO 2 , ∘ more than 3.0% and less than 40.0% of Al 2 O 3 , ∘ more than 1.0% and less than 20.0% of MgO, ZrO 2 , Al 2 O 3 and MgO together represent at least 95.0% of the weight of said grains. ∘ more than 45.0% and less than 95.0% of ZrO 2 , ∘ more than 3.0% and less than 40.0% of Al 2 O 3 , ∘ more than 1.0% and less than 20.0% of MgO,
A secondary battery pack comprising: a cell assembly comprising a secondary battery and a stacking frame supporting the secondary battery and stacked in a direction; a pack case having an internal space for accommodating the cell assembly , and having a through hole in internal and external directions; an electrode terminal electrically connected to the cell assembly and protruding to an outer part of the pack case by passing through the through hole ; a bonding part filling a gap between the through hole and the electrode terminal to form an adhesive layer; and a bonding cover attached to the through hole of the pack case while surrounding a boundary of the electrode terminal above the bonding part , characterized in that the bonding cover comprises an outer circumferential part closely contacting an upper surface of the pack case at an outer part of the through hole , and an inner circumferential part that is shrink-fitted to the electrode terminal to contact a boundary surface of the electrode terminal and bent downward with respect to the outer circumferential part to be inserted into the through hole . a cell assembly comprising a secondary battery and a stacking frame supporting the secondary battery and stacked in a direction; a pack case having an internal space for accommodating the cell assembly , and having a through hole in internal and external directions; an electrode terminal electrically connected to the cell assembly and protruding to an outer part of the pack case by passing through the through hole ; a bonding part filling a gap between the through hole and the electrode terminal to form an adhesive layer; and a bonding cover attached to the through hole of the pack case while surrounding a boundary of the electrode terminal above the bonding part , characterized in that the bonding cover comprises an outer circumferential part closely contacting an upper surface of the pack case at an outer part of the through hole , and an inner circumferential part that is shrink-fitted to the electrode terminal to contact a boundary surface of the electrode terminal and bent downward with respect to the outer circumferential part to be inserted into the through hole .
A unitary, molded fluid reservoir body to which a fluid ejection head substrate is attached, the unitary, molded fluid reservoir body comprising: one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) therein, wherein each of the one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) have an open top, sidewalls , and sloped bottom walls attached to the sidewalls , each of the one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) terminating in a fluid supply via (56, 82A-82B, 98A-98C, 118A-118D, 128A-128F), the unitary, molded fluid reservoir body being characterized in that the sloped bottom walls have an angle ranging from about 6 to about 12 degrees relative to a plane orthogonal to the sidewalls ; and an ejection head support face, being disposed opposite the open top, and the ejection head support face being attached with a single fluid ejection device, wherein the single fluid ejection device is configured to eject fluid provided from the one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) through one or more fluid supply vias (82A-82B, 98A-98C, 118A-118D, 128A-128F). one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) therein, wherein each of the one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) have an open top, sidewalls , and sloped bottom walls attached to the sidewalls , each of the one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) terminating in a fluid supply via (56, 82A-82B, 98A-98C, 118A-118D, 128A-128F), the unitary, molded fluid reservoir body being characterized in that the sloped bottom walls have an angle ranging from about 6 to about 12 degrees relative to a plane orthogonal to the sidewalls ; and an ejection head support face, being disposed opposite the open top, and the ejection head support face being attached with a single fluid ejection device, wherein the single fluid ejection device is configured to eject fluid provided from the one or more discrete fluid chambers (54, 72A-72B, 94A-94C, 114A-114D, 124A-124F) through one or more fluid supply vias (82A-82B, 98A-98C, 118A-118D, 128A-128F).
A semiconductor apparatus examination method comprising: a step of acquiring a first interference waveform based on signals from a plurality of drive elements according to light from a first spot comprising the plurality of drive elements in a semiconductor apparatus ; a step of acquiring a second interference waveform based on signals from the plurality of drive elements according to light from a second spot having a region configured to partially overlap the first spot and comprising the plurality of drive elements; and characterized in that the method further comprises a step of separating a waveform signal for each of the drive elements in the first and second spots based on the first and second interference waveforms. a step of acquiring a first interference waveform based on signals from a plurality of drive elements according to light from a first spot comprising the plurality of drive elements in a semiconductor apparatus ; a step of acquiring a second interference waveform based on signals from the plurality of drive elements according to light from a second spot having a region configured to partially overlap the first spot and comprising the plurality of drive elements; and characterized in that the method further comprises a step of separating a waveform signal for each of the drive elements in the first and second spots based on the first and second interference waveforms.
A particle-trapping device for a turbomachine, configured to be disposed in the bypass area of the combustion chamber of the turbomachine these particles being in particular grains of sand or dust, contained in an air flow circulating inside a turbomachine, particularly the air flow circulating in the bypass area of the combustion chamber of said turbomachine, characterized in that it comprises: - at least two particle deflectors , - an element for collecting and storing particles deflected by said deflectors, - means for attaching said trapping device on a portion of the turbomachine, said deflectors having an annular shape and being attached to at least one support frame so as to be coaxial, to be radially aligned and to be spaced radially from one another or from each other, said deflectors being inclined in the same direction with respect to their axes of revolution (X-X') so as to be turned toward said particle collecting and storing element . - at least two particle deflectors , - an element for collecting and storing particles deflected by said deflectors, - means for attaching said trapping device on a portion of the turbomachine,
A method for authorising access by means of an authorisation system comprising: a portal system ; an access evaluator ; and an interface to a data system , the portal system being configured to interact with the access evaluator , the data system being configured to be provided, via one or more first communication channels , with consumption data from a plurality of meter systems comprising a first meter system , the consumption data comprising first consumption data from the first meter system , the data system comprising, or being configured to be provided with, via the one or more first communication channels , identification information identifying the meter systems , the identification information comprising second primary verification information identifying the first meter system , the method comprising: - obtaining , via a second communication channel and by means of the portal system , second primary access information being indicative of the first meter system ; - obtaining , via the second communication channel and by means of the portal system , first primary access information (122, v a , v b ) comprising at least part of the first consumption data ; - obtaining , by means of the second primary access information and the second primary verification information , first primary verification information (v ea ) relating to, or comprising, at least part of the first consumption data , wherein the first primary verification information (v ea ) is obtained by extracting a consumption value from the first meter system , or wherein the first primary verification information (v ea ) is a derived value from the first consumption data of the first meter system as accessible by the data system ; and - comparing the first primary access information (122, v a , v b ) with the first primary verification information (v ea ) for determining whether to authorise access. - obtaining , via a second communication channel and by means of the portal system , second primary access information being indicative of the first meter system ; - obtaining , via the second communication channel and by means of the portal system , first primary access information (122, v a , v b ) comprising at least part of the first consumption data ; - obtaining , by means of the second primary access information and the second primary verification information , first primary verification information (v ea ) relating to, or comprising, at least part of the first consumption data , wherein the first primary verification information (v ea ) is obtained by extracting a consumption value from the first meter system , or wherein the first primary verification information (v ea ) is a derived value from the first consumption data of the first meter system as accessible by the data system ; and - comparing the first primary access information (122, v a , v b ) with the first primary verification information (v ea ) for determining whether to authorise access.
An endotracheal tube, comprising at least one main tubular body , configured for the at least partial insertion into the respiratory tract of a patient (A), through the mouth (B) or the nose (C), said endotracheal tube comprising at least one tubular reinforcement skeleton for said body , at least one useful portion of said skeleton being constituted by at least one first filament which is wound in a helical manner around the longitudinal axis (E) of said body and being selectively disengageable from said body , for its removal after the completion of the step of insertion of said body into the respiratory tract of the patient (A), characterized in that said skeleton is accommodated within the thickness of said body , said at least one first filament being longitudinally extractable from said thickness.
A method for calculating an absolute value of an unsteady flowrate ( G (t)) of a homogeneous liquid comprising the steps of: - measuring the pressure difference ( Δ p(t)) along a supply pipe of the liquid; - calculating a fluctuation of the flowrate (Δ G ( t )) of the liquid on the basis of a solution of an approximation of a system of partial differential equations comprising the equation of conservation of mass and the momentum balance equation, in which the wall friction (τ w ) is modelled so as to comprise at least one first term ( τ sf ) which is proportional to the square of the average flowrate over time (〈 G 〉) by means of a proportionality constant which is a function at least of the Reynolds number referring to the liquid and to the pipe , of the density of the fluid and of the cross-section of the pipe ; characterized by further comprising the steps of: - calculating said fluctuation of the flowrate ( Δ G ( t )) around the average flowrate over time (〈 G 〉) by using pressure signals detected by two pressure sensors , - calculating the absolute value of the unsteady flowrate ( G (t)) on the basis of the sum of said fluctuation of the flowrate ( Δ G ( t ) ) and the average flowrate over time (〈 G 〉). - measuring the pressure difference ( Δ p(t)) along a supply pipe of the liquid; - calculating a fluctuation of the flowrate (Δ G ( t )) of the liquid on the basis of a solution of an approximation of a system of partial differential equations comprising the equation of conservation of mass and the momentum balance equation, in which the wall friction (τ w ) is modelled so as to comprise at least one first term ( τ sf ) which is proportional to the square of the average flowrate over time (〈 G 〉) by means of a proportionality constant which is a function at least of the Reynolds number referring to the liquid and to the pipe , of the density of the fluid and of the cross-section of the pipe ; characterized by further comprising the steps of: - calculating said fluctuation of the flowrate ( Δ G ( t )) around the average flowrate over time (〈 G 〉) by using pressure signals detected by two pressure sensors , - calculating the absolute value of the unsteady flowrate ( G (t)) on the basis of the sum of said fluctuation of the flowrate ( Δ G ( t ) ) and the average flowrate over time (〈 G 〉).
An image processing method comprising: acquiring an image frame ; tracking a face region of a user by using a previous detected face region obtained from at least one previous frame of the image frame ; if it is determined that the tracking of the face region has failed, setting a scan region in the image frame by using information related to at least one previous scan region based on which detection of the face region is performed in the at least one previous frame obtained from the at least one previous frame; and detecting the face region in the image frame based on the scan region, wherein the setting comprises resetting the scan region to a region to which the at least one previous scan region is expanded, and wherein the resetting comprises resetting the scan region by sequentially expanding a size of a window for setting a previous scan region, in response to a determination that tracking of the face region in the previous scan region has failed. acquiring an image frame ; tracking a face region of a user by using a previous detected face region obtained from at least one previous frame of the image frame ; if it is determined that the tracking of the face region has failed, setting a scan region in the image frame by using information related to at least one previous scan region based on which detection of the face region is performed in the at least one previous frame obtained from the at least one previous frame; and detecting the face region in the image frame based on the scan region, wherein the setting comprises resetting the scan region to a region to which the at least one previous scan region is expanded, and wherein the resetting comprises resetting the scan region by sequentially expanding a size of a window for setting a previous scan region, in response to a determination that tracking of the face region in the previous scan region has failed.