mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a lithium iron phosphate nanopowder, comprising the steps of: (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a butandiol solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 10 to 100 bar, wherein Step (b) is performed at a temperature range of 150 to 235°C, and wherein Step (b) is performed for 1 to 48 hours. (a) preparing a mixture solution by adding a lithium precursor, an iron precursor and a phosphorus precursor in a butandiol solvent; and (b) putting the mixture solution into a reactor and heating to prepare the lithium iron phosphate nanopowder under pressure conditions of 10 to 100 bar,
A method for mobile network testing by using at least one testing device configured to be connected to a mobile network, comprising the following steps: - Running a predefined set of test procedures on the at least one testing device , wherein the test procedures running on the at least one testing device simulate the behavior of participants of the mobile network, - Obtaining test results assigned to at least one test parameter by means of a processing unit , wherein the at least one test parameter corresponds to at least one network key performance indicator, - Evaluating the test results of the test procedures via a machine learning model by means of the processing unit , and - Training the machine learning model to predict output parameters assigned to the quality of a service based on the test results obtained by means of the processing unit , wherein the service relates to an application requiring data from the mobile network, wherein the training of the machine learning model is based on the at least one test parameter together with the resulting output parameters assigned to the quality of the respective service, and wherein the at least one test parameter as well as the resulting output parameters correspond to a pair consisting of a certain input parameter as well as a desired output parameter. - Running a predefined set of test procedures on the at least one testing device , wherein the test procedures running on the at least one testing device simulate the behavior of participants of the mobile network, - Obtaining test results assigned to at least one test parameter by means of a processing unit , wherein the at least one test parameter corresponds to at least one network key performance indicator, - Evaluating the test results of the test procedures via a machine learning model by means of the processing unit , and - Training the machine learning model to predict output parameters assigned to the quality of a service based on the test results obtained by means of the processing unit , wherein the service relates to an application requiring data from the mobile network, wherein the training of the machine learning model is based on the at least one test parameter together with the resulting output parameters assigned to the quality of the respective service, and wherein the at least one test parameter as well as the resulting output parameters correspond to a pair consisting of a certain input parameter as well as a desired output parameter.
A steerable guidewire for insertion into a body cavity, characterized in that is comprises: a) an elongated body defining a longitudinally-arranged lumen comprising i) a proximal end portion and ii) a distal end portion comprising a spatially reconfigurable portion and a tip ; b) exactly one pull wire located along said lumen and affixed to said distal end portion and to said proximal end ; c) said proximal end portion comprises an elastic actuation region adapted to impart an indirect tension force on the one pull wire resulting in a compression force to the spatially reconfigurable region , wherein said elastic actuation region is devoid of any coiled member; and d) an intermediate region tubular element on said body located between said spatially reconfigurable portion and said proximal end . a) an elongated body defining a longitudinally-arranged lumen comprising i) a proximal end portion and ii) a distal end portion comprising a spatially reconfigurable portion and a tip ; i) a proximal end portion and ii) a distal end portion comprising a spatially reconfigurable portion and a tip ; b) exactly one pull wire located along said lumen and affixed to said distal end portion and to said proximal end ; c) said proximal end portion comprises an elastic actuation region adapted to impart an indirect tension force on the one pull wire resulting in a compression force to the spatially reconfigurable region , wherein said elastic actuation region is devoid of any coiled member; and d) an intermediate region tubular element on said body located between said spatially reconfigurable portion and said proximal end .
An activatable adhesive label comprising a flexible visible material in web form, wherein at least one adhesive layer made of a moisture-activatable adhesive which is non-sticky in the dry state is applied to one side of the flexible visible material, characterized in that at least one middle layer is provided which is designed to be pressure-sensitive and which is arranged between the visible material and the adhesive layer, and wherein the middle layer prevents the separation of the visible material and the pressure-sensitive adhesive layer, in the glued-on state or applied state, and has a glass transition temperature Tg lower than the application temperature.
A method for determining a filter change schedule of one or more filters being arranged upstream an air intake inlet of a gas turbine , the method comprising: measuring differential pressure variation across said one or more filters and a time elapsed since a last filter change, the differential pressure variation and the time elapsed each being associated with at least one filter; selecting a prediction period representing a time window in the future for which performance of the gas turbine can be predicted; estimating a future power loss due to increasing differential pressure across the one or more filters caused by the differential pressure variation; predict a performance profile of the gas turbine over the prediction period with filter change and without filter change based on measured power loss or estimated power loss; determining the filter change schedule based on a cost of the filter change, the time elapsed, a cost of the future power loss; and by a filter change optimization controller that interfaces with a distributed control system , controlling the gas turbine by changing at least one operational parameter of the gas turbine including reducing or increasing a load of the gas turbine to optimize the filter change schedule by optimizing the filter change time. measuring differential pressure variation across said one or more filters and a time elapsed since a last filter change, the differential pressure variation and the time elapsed each being associated with at least one filter; selecting a prediction period representing a time window in the future for which performance of the gas turbine can be predicted; estimating a future power loss due to increasing differential pressure across the one or more filters caused by the differential pressure variation; predict a performance profile of the gas turbine over the prediction period with filter change and without filter change based on measured power loss or estimated power loss; determining the filter change schedule based on a cost of the filter change, the time elapsed, a cost of the future power loss; and by a filter change optimization controller that interfaces with a distributed control system , controlling the gas turbine by changing at least one operational parameter of the gas turbine including reducing or increasing a load of the gas turbine to optimize the filter change schedule by optimizing the filter change time.
An anti-microbialwater system component comprising a substrate and a hydrophilic coating disposed on the substrate, wherein the hydrophilic coating comprises an adhesive agent; an insolubilizer for insolubilizing the adhesive agent; titanium dioxide; and silver oxide; wherein the hydrophilic coating is obtained by applying a coating slurry to the substrate, said coating slurry including said adhesive agent, said insolubilizer, said titanium dioxide, said silver oxide, and water or a water-based solvent, wherein the solvent is present in an amount of 50% to 70% by weight, based upon the total weight of the coating slurry, wherein the silver oxide is present in an amount of 2 to 10% by weight, based upon the total weight of the coating slurry, wherein once the coating slurry has been applied, it is dried and cured so as ensure a complete removal of the water or water-based solvent and complete curing of the coating, and wherein during the preparation of the coating the adhesive agent is converted from a water soluble material to a water insoluble material with said insolubilizer.
A print head for additive manufacturing, comprising: two proximate hobs suitable to receive and extrude therebetween a print material filament for the additive manufacturing, a motor capable of imparting a rotation to at least one of the two hobs , wherein the extrusion results from the rotation; and an interface to a hot end capable of outputting the print material filament after at least partial liquification to perform the additive manufacturing, characterized in , each of the two hobs comprising two opposing halves , wherein the halves oppose each other in the direction of their rotational axis and each of them comprises teeth arranged on the outer surface of each of the halves , wherein the teeth are configured to contact the print material filament while the two proximate hobs receive and extrude therebetween the print material filament , wherein the teeth are offset with respect to the teeth of the opposing hob half . two proximate hobs suitable to receive and extrude therebetween a print material filament for the additive manufacturing, a motor capable of imparting a rotation to at least one of the two hobs , wherein the extrusion results from the rotation; and an interface to a hot end capable of outputting the print material filament after at least partial liquification to perform the additive manufacturing, each of the two hobs comprising two opposing halves , wherein the halves oppose each other in the direction of their rotational axis and each of them comprises teeth arranged on the outer surface of each of the halves , wherein the teeth are configured to contact the print material filament while the two proximate hobs receive and extrude therebetween the print material filament , wherein the teeth are offset with respect to the teeth of the opposing hob half .
A heat exchanger , comprising: a pair of manifolds , wherein each manifold comprises an axis of elongation; a plurality of tubes stacked between the manifolds to provide a fluidal communication between the manifolds , and at least one connecting arrangement configured to be fixed to at least one of the manifolds (102A, 102 B), wherein the arrangement comprises, a first connecting element comprising, a hollow portion extending parallelly with respect to the axis of elongation of at least one manifold , wherein the hollow portion enables rotation around the axis of elongation of the manifold so as to engage the first connecting element thereof, and at least one latch element extending from a side of hollow portion adapted to engage with the manifold to immobilize the first connecting element with respect to the manifold at least in an axis perpendicular to the axis of elongation of the manifold , wherein the heat exchanger further comprises a second connecting element comprising a block complementary to the hollow portion , the block being fixed to the manifold to enable coupling of the first connecting element thereof, characterised in that the hollow portion comprises a base , two spaced apart sidewalls extending from opposing sides of the base , an open end and a closed end . a plurality of tubes stacked between the manifolds to provide a fluidal communication between the manifolds , and at least one connecting arrangement configured to be fixed to at least one of the manifolds (102A, 102 B), wherein the arrangement comprises, a first connecting element comprising, a hollow portion extending parallelly with respect to the axis of elongation of at least one manifold , wherein the hollow portion enables rotation around the axis of elongation of the manifold so as to engage the first connecting element thereof, and at least one latch element extending from a side of hollow portion adapted to engage with the manifold to immobilize the first connecting element with respect to the manifold at least in an axis perpendicular to the axis of elongation of the manifold , wherein the heat exchanger further comprises a second connecting element comprising a block complementary to the hollow portion , the block being fixed to the manifold to enable coupling of the first connecting element thereof, characterised in that the hollow portion comprises a base , two spaced apart sidewalls extending from opposing sides of the base , an open end and a closed end .
A device comprising: a power adaptor for receiving input electrical power and outputting electrical power for charging a rechargeable battery or powering another device; and speaker devices for outputting audio, the speaker devices being headphones or earphones; each speaker device having an electrical power pin configured to be received in a respective socket of a mains power socket; each speaker device having an electrical connection to the power adaptor ; whereby the electrical power pins of the speaker devices are configured to receive input electrical power from the mains power socket in which the electrical power pins are received and to pass the input electrical power to the power adaptor via the electrical connections . a power adaptor for receiving input electrical power and outputting electrical power for charging a rechargeable battery or powering another device; and speaker devices for outputting audio, the speaker devices being headphones or earphones; each speaker device having an electrical power pin configured to be received in a respective socket of a mains power socket; each speaker device having an electrical connection to the power adaptor ; whereby the electrical power pins of the speaker devices are configured to receive input electrical power from the mains power socket in which the electrical power pins are received and to pass the input electrical power to the power adaptor via the electrical connections .
A dual-use, high density plate for storage and assays, comprising: a frame; a matrix of more than 384 active wells defined by walls disposed within the frame and bottom portions, said walls and bottom portions comprising one or more solvent-resistant materials; characterised by a plurality of evaporation control wells configured so that the plurality of evaporation control wells affect evaporation control and are dummy wells that unaffect assay results, the evaporation control wells being disposed within the frame so as to surround the matrix of more than 384 active wells and being defined by outer walls disposed within the frame outwards of the matrix of more than 384 active wells and bottom portions; and a lid removably disposed over a top of the frame so as to form a small gap between the lid and tops of the evaporation control wells and active wells so that vapour from the evaporation control wells in the small gap controls a partial pressure gradient seen by vapour in a space above the active wells; wherein the bottom portions of the active wells comprise DMSO-resistant material, the evaporation control wells being further defined by bottom portions not comprising the same DMSO-resistant material as the bottom portions of the active wells. a frame; a matrix of more than 384 active wells defined by walls disposed within the frame and bottom portions, said walls and bottom portions comprising one or more solvent-resistant materials; characterised by a plurality of evaporation control wells configured so that the plurality of evaporation control wells affect evaporation control and are dummy wells that unaffect assay results, the evaporation control wells being disposed within the frame so as to surround the matrix of more than 384 active wells and being defined by outer walls disposed within the frame outwards of the matrix of more than 384 active wells and bottom portions; and a lid removably disposed over a top of the frame so as to form a small gap between the lid and tops of the evaporation control wells and active wells so that vapour from the evaporation control wells in the small gap controls a partial pressure gradient seen by vapour in a space above the active wells; wherein the bottom portions of the active wells comprise DMSO-resistant material, the evaporation control wells being further defined by bottom portions not comprising the same DMSO-resistant material as the bottom portions of the active wells.
A fuel supply system that is used for a marine boiler and supplies fuel gas to a burner unit including a main nozzle and a sub-nozzle , the fuel supply system comprising: a first supply pipe through which the fuel gas supplied from a supply source flows; a second supply pipe that supplies the fuel gas from the first supply pipe to the main nozzle ; a third supply pipe that supplies the fuel gas from the first supply pipe to the sub-nozzle ; a first adjustment valve that is provided to the second supply pipe and adjusts a flow rate of the fuel gas guided from the first supply pipe to the main nozzle through the second supply pipe ; a second adjustment valve that adjusts a flow rate of the fuel gas supplied from the supply source to the first supply pipe ; a control unit that controls the degree of opening of the first adjustment valve and the second adjustment valve , wherein the control unit controls the first adjustment valve so that when a flow rate of the fuel gas supplied from the first supply pipe to the burner unit is less than a predetermined flow rate, the first adjustment valve is closed, characterized in that the control unit further controls the first adjustment valve so that when the flow rate of the fuel gas supplied from the first supply pipe to the burner unit is greater than or equal to the predetermined flow rate, the degree of opening of the first adjustment valve increases with an increase in the flow rate of the fuel gas degree of opening of the second adjustment valve . a first supply pipe through which the fuel gas supplied from a supply source flows; a second supply pipe that supplies the fuel gas from the first supply pipe to the main nozzle ; a third supply pipe that supplies the fuel gas from the first supply pipe to the sub-nozzle ; a first adjustment valve that is provided to the second supply pipe and adjusts a flow rate of the fuel gas guided from the first supply pipe to the main nozzle through the second supply pipe ; a second adjustment valve that adjusts a flow rate of the fuel gas supplied from the supply source to the first supply pipe ; a control unit that controls the degree of opening of the first adjustment valve and the second adjustment valve , wherein the control unit controls the first adjustment valve so that when a flow rate of the fuel gas supplied from the first supply pipe to the burner unit is less than a predetermined flow rate, the first adjustment valve is closed,
A compound represented by the following Chemical Formula 1: R1 to R3 are each independently any one selected from a group consisting of hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; a hydroxy group; a carbonyl group; an ester group; an imide group; an amino group; a silyl group; a boron group; an alkyl group; a cycloalkyl group; an alkoxy group; an aryloxy group; an alkylthioxy group; an arylthioxy group; an alkylsulfoxy group; an arylsulfoxy group; an alkenyl group; an aralkyl group; an aralkenyl group; an alkylaryl group; an aralkylamine group; an arylamine group; an arylphosphine group; a phosphine oxide group; an aryl group; and a heterocyclic group, L1 to L3 are a direct bond; or any one of the following chemical formulae: Ar1 and Ar2 are each independently any one selected from a group consisting of hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; an amine group; an alkyl group; an alkoxy group; an aryl group; a fluorene group; and a heterocyclic group, Ar1, and Ar2 optionally combine with an adjacent group to form a ring, n and m are each an integer of 0 to 6, o+s is an integer of 1 to 4, and s, p, and q are an integer of 1 to 4. R1 to R3 are each independently any one selected from a group consisting of hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; a hydroxy group; a carbonyl group; an ester group; an imide group; an amino group; a silyl group; a boron group; an alkyl group; a cycloalkyl group; an alkoxy group; an aryloxy group; an alkylthioxy group; an arylthioxy group; an alkylsulfoxy group; an arylsulfoxy group; an alkenyl group; an aralkyl group; an aralkenyl group; an alkylaryl group; an aralkylamine group; an arylamine group; an arylphosphine group; a phosphine oxide group; an aryl group; and a heterocyclic group, L1 to L3 are a direct bond; or any one of the following chemical formulae: Ar1 and Ar2 are each independently any one selected from a group consisting of hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; an amine group; an alkyl group; an alkoxy group; an aryl group; a fluorene group; and a heterocyclic group, Ar1, and Ar2 optionally combine with an adjacent group to form a ring, n and m are each an integer of 0 to 6, o+s is an integer of 1 to 4, and s, p, and q are an integer of 1 to 4.
A method for exchanging useful data (ND, 54) on a portable data carrier between a source application (A), which is the owner of an object (Obj) comprising the useful data (ND, 54), and a target application (B), wherein an access to the object (Obj) is reserved for an owner of the object (Obj), wherein the following step is carried out: - generating (S3) the owner identification data (EAD) associated with the object (Obj) by a generating entity (OS, 42) of the data carrier , wherein the owner identification data (EAD) identify the target application (B) besides the source application (A) as an owner of the object (Obj), characterized in that the owner identification data (EAD) are generated as a metadata set describing the object (Obj) which comprises, in addition to the information about the owner of the object (Obj), a reference (Ref (ND)) to the useful data (ND, 54) of the object (Obj), and that generating the owner identification data consists of copying the original metadata set and changing the owner information in the copy, and that an access to the object is effected via different references, with different owners for the object, once the source application, once the target application. - generating (S3) the owner identification data (EAD) associated with the object (Obj) by a generating entity (OS, 42) of the data carrier , wherein the owner identification data (EAD) identify the target application (B) besides the source application (A) as an owner of the object (Obj), characterized in that the owner identification data (EAD) are generated as a metadata set describing the object (Obj) which comprises, in addition to the information about the owner of the object (Obj), a reference (Ref (ND)) to the useful data (ND, 54) of the object (Obj), and that generating the owner identification data consists of copying the original metadata set and changing the owner information in the copy, and that an access to the object is effected via different references, with different owners for the object, once the source application, once the target application.