mhurhangee/ep-ind-claims huggingface dataset:
A system for predicting failure of a resistive heating element of an air data probe, the system comprising: an AC electrical power source configured to provide AC electrical operating power to the resistive heating element; an electrical sensor configured to sense electrical current provided to the resistive heating element; a high-frequency signal detector configured to detect high-frequency components of the electrical current sensed by taking a derivative of the electrical current sensed, wherein high-frequency components have frequencies that are high in comparison with a frequency of the AC electrical operating power; and a remaining-life prediction engine configured to estimate a remaining life of the resistive heating element based on high-frequency components of the electrical current detected. an AC electrical power source configured to provide AC electrical operating power to the resistive heating element; an electrical sensor configured to sense electrical current provided to the resistive heating element; a high-frequency signal detector configured to detect high-frequency components of the electrical current sensed by taking a derivative of the electrical current sensed, wherein high-frequency components have frequencies that are high in comparison with a frequency of the AC electrical operating power; and a remaining-life prediction engine configured to estimate a remaining life of the resistive heating element based on high-frequency components of the electrical current detected.
A fuse comprising: - at least one fuse link, formed in a sheet having two opposite main faces extending along a longitudinal axis of the fuse link, each fuse link comprising a portion in which is formed a reduced section (46, 46A) defining a plane crossing the fuse link, - two connection terminals, each terminal being connected to each blade fuse, - arch shields, made of a preformed elastic material, which are associated in pairs, the arch shields of the same pair each being located opposite each other on a respective main face of the same fuse link, characterised in that for at least a first pair of arch guards, a layer of adhesive is interposed between the fuse link and an inner face of each arch guard of that pair, the inner face facing one of the main faces of the fuse link, so as to secure each arch guard to the fuse link. - at least one fuse link, formed in a sheet having two opposite main faces extending along a longitudinal axis of the fuse link, each fuse link comprising a portion in which is formed a reduced section (46, 46A) defining a plane crossing the fuse link, - two connection terminals, each terminal being connected to each blade fuse, - arch shields, made of a preformed elastic material, which are associated in pairs, the arch shields of the same pair each being located opposite each other on a respective main face of the same fuse link,
A method of providing a mobile patient monitoring device, MPMD, with an optimized link quality over a wireless network in medical environment, comprising: establishing a first communication link between a MPMD and a first wireless network via which the MPMD communicates with a healthcare Internet protocol, IP, network; evaluating a quality of the first communication link; in response to determining that the quality of the first communication link is below a predetermined threshold level, establishing a second communication link with a second wireless network via which the MPMD communicates with the healthcare Internet protocol, IP, network; evaluating a quality of the second communication link after it is established; in response to determining that the quality of the second communication link is below the predetermined threshold level, maintaining the first communication link; and in response to determining that the quality of the second communication link is not below the predetermined threshold level, terminating the first communication link. establishing a first communication link between a MPMD and a first wireless network via which the MPMD communicates with a healthcare Internet protocol, IP, network; evaluating a quality of the first communication link; in response to determining that the quality of the first communication link is below a predetermined threshold level, establishing a second communication link with a second wireless network via which the MPMD communicates with the healthcare Internet protocol, IP, network; evaluating a quality of the second communication link after it is established; in response to determining that the quality of the second communication link is below the predetermined threshold level, maintaining the first communication link; and in response to determining that the quality of the second communication link is not below the predetermined threshold level, terminating the first communication link.
A method for manufacturing a drug-delivery composition, comprising: - providing at least a pharmaceutically active composition dissolved in an aqueous solution; - providing a hydrophobic matrix comprising at least a hydrophobic solid component and a hydrophobic liquid component; and - mixing the hydrophobic matrix comprising at least the hydrophobic solid component and the hydrophobic liquid component, and the pharmaceutically active composition dissolved in the aqueous solution to form a paste-like or semi-solid drug-delivery composition, wherein the hydrophobic matrix is kept in a non-molten state throughout the mixing, - wherein mixing comprises repeated cycles of pressing and folding of the mixture of the hydrophobic matrix and the pharmaceutically active composition to form the paste-like or semi-solid drug-delivery composition. - providing at least a pharmaceutically active composition dissolved in an aqueous solution; - providing a hydrophobic matrix comprising at least a hydrophobic solid component and a hydrophobic liquid component; and - mixing the hydrophobic matrix comprising at least the hydrophobic solid component and the hydrophobic liquid component, and the pharmaceutically active composition dissolved in the aqueous solution to form a paste-like or semi-solid drug-delivery composition, wherein the hydrophobic matrix is kept in a non-molten state throughout the mixing, - wherein mixing comprises repeated cycles of pressing and folding of the mixture of the hydrophobic matrix and the pharmaceutically active composition to form the paste-like or semi-solid drug-delivery composition.
An operating method of a blow molding apparatus in which a molded body made of resin material is blow-molded in a blow mold and a hollow container is molded, wherein - blow air accumulated in a blow air tank is provided to the molded body received in the blow mold and the molded body is inflated to a predetermined shape, and - exhaust air discharged from the molded body after blow molding is recovered to a receiving tank and the recovered exhaust air is reused as operating air for operating various driving devices, characterized in that - if the pressure in the receiving tank is at least a first set value P1, which is a pressure chosen according to the air amount which is needed in the operation of various driving devices during one molding cycle, by recovery of exhaust air, then recovery of the exhaust air to the receiving tank is stopped, - if the pressure in the receiving tank is not increased to the set value P1 by recovery of exhaust air until a saturation state in the receiving tank is reached, then air is pressurized and supplied from an air source to the receiving tank until the next recovery of the exhaust air starts and the pressure in the receiving tank is increased until a predetermined value is reached, so that the pressure in the receiving tank is maintained to be approximately constant at a second set value P2 at the time when the recovery of the exhaust air starts in each molding cycle. - blow air accumulated in a blow air tank is provided to the molded body received in the blow mold and the molded body is inflated to a predetermined shape, and - exhaust air discharged from the molded body after blow molding is recovered to a receiving tank and the recovered exhaust air is reused as operating air for operating various driving devices, - if the pressure in the receiving tank is at least a first set value P1, which is a pressure chosen according to the air amount which is needed in the operation of various driving devices during one molding cycle, by recovery of exhaust air, then recovery of the exhaust air to the receiving tank is stopped, - if the pressure in the receiving tank is not increased to the set value P1 by recovery of exhaust air until a saturation state in the receiving tank is reached, then air is pressurized and supplied from an air source to the receiving tank until the next recovery of the exhaust air starts and the pressure in the receiving tank is increased until a predetermined value is reached, so that the pressure in the receiving tank is maintained to be approximately constant at a second set value P2 at the time when the recovery of the exhaust air starts in each molding cycle.
A ceramic matrix composite turbine blade comprising: a root region; a narrowed neck region extending from the root region; and a hub region extending from the narrowed neck region; characterised in that at least one central CMC ply extending from the root region is interwoven with at least one insert extending toward the narrowed neck region from the hub region; and wherein a plurality of insert CMC ply strips of the at least one insert are alternatingly interwoven above and below the at least one central CMC ply or wherein a plurality of central CMC ply strips of the at least one central CMC ply are alternatingly interwoven above and below the at least one insert. a root region; a narrowed neck region extending from the root region; and a hub region extending from the narrowed neck region; characterised in that at least one central CMC ply extending from the root region is interwoven with at least one insert extending toward the narrowed neck region from the hub region; and wherein a plurality of insert CMC ply strips of the at least one insert are alternatingly interwoven above and below the at least one central CMC ply or wherein a plurality of central CMC ply strips of the at least one central CMC ply are alternatingly interwoven above and below the at least one insert.
Process for the conversion of oxygenates to C 5+ hydrocarbons boiling in the gasoline boiling range, comprising the steps of continuously a) providing one or more feed streams of one or more oxygenate compounds; b) heating the one or more feed streams to an inlet temperature of one or more downstream conversion reactors; c) introducing the one or more heated feed stream into inlet of the one or more conversion reactors; d) converting in the one or more conversion reactors the one or more heated feed stream in presence of catalyst to a converted oxygenate product comprising C 5+ hydrocarbons; e) withdrawing from the one or more conversion reactors the converted oxygenate product; f) determining at outlet of the one or more conversion reactors amount of the one or more unconverted oxygenate compounds in the withdrawn converted oxygenate product; g) separating the converted oxygenate product into a C 4- hydrocarbon fraction, a fraction with the C 5+ hydrocarbons boiling in the gasoline boiling range and a fraction comprising water and the one or more unconverted oxygenate compounds, wherein the inlet temperature of the one or more feed streams in step (b) is continuously adjusted to maintain a constant amount of the one or more unconverted oxygenate compounds as determined in step (f) and to maintain a constant level of conversion of the one or more oxygenate compounds of between 95% to 99.9%. a) providing one or more feed streams of one or more oxygenate compounds; b) heating the one or more feed streams to an inlet temperature of one or more downstream conversion reactors; c) introducing the one or more heated feed stream into inlet of the one or more conversion reactors; d) converting in the one or more conversion reactors the one or more heated feed stream in presence of catalyst to a converted oxygenate product comprising C 5+ hydrocarbons; e) withdrawing from the one or more conversion reactors the converted oxygenate product; f) determining at outlet of the one or more conversion reactors amount of the one or more unconverted oxygenate compounds in the withdrawn converted oxygenate product; g) separating the converted oxygenate product into a C 4- hydrocarbon fraction, a fraction with the C 5+ hydrocarbons boiling in the gasoline boiling range and a fraction comprising water and the one or more unconverted oxygenate compounds, wherein the inlet temperature of the one or more feed streams in step (b) is continuously adjusted to maintain a constant amount of the one or more unconverted oxygenate compounds as determined in step (f) and to maintain a constant level of conversion of the one or more oxygenate compounds of between 95% to 99.9%.
A guide shoe of a guiding device of a plastic processing machine clamping unit for supporting and guiding a movable mould platen in a clamping direction of the plastic processing machine, wherein the guide shoe has a main body on which sliding and/or rolling elements can be fastened, and a connecting element which is spaced apart from the main body, and which runs substantially perpendicularly in a clamping direction (x-direction), which has a fastening region for fastening the guide shoe to a movable mould platen, wherein the connecting element is designed as a deformation element and the deformation element is connected to the main body via a connecting region that forms a target bending zone with respect to a bend about a bending axis, which is substantially parallel to the clamping direction, and the deformation element additionally forms a target torsion zone about a torsion axis, which is arranged substantially perpendicular to the clamping direction, characterized in that - the movable mould platen can be fastened solely to the fastening region of the connecting element in a decoupled manner from the main body, and the main body is elongated in the clamping direction. - the movable mould platen can be fastened solely to the fastening region of the connecting element in a decoupled manner from the main body,
A SERD compound selected from: or a pharmaceutically acceptable salt thereof, for use in a method of treating an estrogen-related cancer in a subject in need thereof in combination with a CDK4/6 inhibitor compound selected from: or a pharmaceutically acceptable salt thereof; wherein the subject is human and the estrogen-related cancer is breast cancer. or a pharmaceutically acceptable salt thereof, for use in a method of treating an estrogen-related cancer in a subject in need thereof in combination with a CDK4/6 inhibitor compound selected from: or a pharmaceutically acceptable salt thereof; wherein the subject is human and the estrogen-related cancer is breast cancer.
Method of mixing and/or storing liquids such as paint or varnish, use being made of a paint container which is provided, in particular, for use in paint spray guns and has a paint cup and a lid which can be released therefrom, wherein an intermediate lid (19, 25, 32, 35, 37) is provided, said intermediate lid closing the paint cup or the lid in a sealed manner while liquid components, such as paint or varnish components, are being mixed and/or stored, characterized in that the intermediate lid has a gripping device.
A lighting apparatus (10, 10A, 10B), comprising: an illuminator including a light source configured to emit illumination light; a lighting controller configured to control the illuminator; and a receiver configured to receive, from another apparatus, a control command signal generated based on at least one of user information and environmental information in order to control the illumination light, wherein the control command signal includes a plurality of parameters including, as elements, at least two of a brightness of the illumination light, a color temperature of the illumination light, and control time for controlling the illumination light, characterized in that: when the receiver has received the control command signal from the other apparatus, the lighting controller is configured to change the brightness of the illumination light by performing light alert control on the illuminator for notifying the user of said lighting apparatus that a predetermined control target apparatus will start to operate soon, the control target apparatus being different from the lighting apparatus (10, 10A, 10B). an illuminator including a light source configured to emit illumination light; a lighting controller configured to control the illuminator; and a receiver configured to receive, from another apparatus, a control command signal generated based on at least one of user information and environmental information in order to control the illumination light, wherein the control command signal includes a plurality of parameters including, as elements, at least two of a brightness of the illumination light, a color temperature of the illumination light, and control time for controlling the illumination light, characterized in that: when the receiver has received the control command signal from the other apparatus, the lighting controller is configured to change the brightness of the illumination light by performing light alert control on the illuminator for notifying the user of said lighting apparatus that a predetermined control target apparatus will start to operate soon, the control target apparatus being different from the lighting apparatus (10, 10A, 10B).
A battery module, comprising: a battery cell, comprising electrode terminals; and an insulation board, disposed on a top of the battery cell, wherein the insulation board comprises a body portion and a first bulge protruding in relation to the body portion; wherein the first bulge comprises a sidewall connected to the body portion and a top wall connected to a top of the sidewall, the sidewall and the top wall are configured to close in to form an accommodation cavity, at least a part of each electrode terminal is accommodated in the accommodation cavity, and the top wall covers a part of the electrode terminal; a via hole is disposed on the top wall, the via hole runs through to the accommodation cavity, and a part of the electrode terminal is exposed out of the via hole; and the electrode terminal comprises a base portion and a first connecting portion protruding from the base portion, the top wall covers at least a part of the base portion, and the first connecting portion is exposed out of the via hole. a battery cell, comprising electrode terminals; and an insulation board, disposed on a top of the battery cell, wherein the insulation board comprises a body portion and a first bulge protruding in relation to the body portion; wherein the first bulge comprises a sidewall connected to the body portion and a top wall connected to a top of the sidewall, the sidewall and the top wall are configured to close in to form an accommodation cavity, at least a part of each electrode terminal is accommodated in the accommodation cavity, and the top wall covers a part of the electrode terminal; a via hole is disposed on the top wall, the via hole runs through to the accommodation cavity, and a part of the electrode terminal is exposed out of the via hole; and the electrode terminal comprises a base portion and a first connecting portion protruding from the base portion, the top wall covers at least a part of the base portion, and the first connecting portion is exposed out of the via hole.
Process for producing objects by inserting powdered material to heat and solidify in a mould (10; 50), with the steps of heating and cooling the mould by means of circulation of fluid on the outer surface of the mould, wherein the mould is agitated while being filled and/or heated, characterized in that the density of the material in the moulded object is controlled locally by controlling the output of the flows of gas released into the mould, wherein said controlling is carried out by creating in the mould gas vents, so as to locally lower at will the density of the material in the moulded object.
A method for obtaining spectroscopic data comprising: furnishing in an electron microscope a sample (104, 204) comprising crystalline material; configuring an electron beam (103,202) to impinge on a location of the sample comprising a region of crystalline material; applying an incident beam scanning protocol that maintains the beam impinging substantially on the sample location while varying over time one or both of the incident beam inclination angle and azimuthal angle; characterized in that the method further comprises, acquiring a set of spectroscopic data while the incident beam scanning protocol is being applied, wherein the spectroscopic data set is either: energy-resolved x-ray data acquired from x-rays emitted from the crystalline region; or, energy loss data acquired from a beam exiting the sample and the electron microscope is a transmission electron microscope. furnishing in an electron microscope a sample (104, 204) comprising crystalline material; configuring an electron beam (103,202) to impinge on a location of the sample comprising a region of crystalline material; applying an incident beam scanning protocol that maintains the beam impinging substantially on the sample location while varying over time one or both of the incident beam inclination angle and azimuthal angle; characterized in that the method further comprises, acquiring a set of spectroscopic data while the incident beam scanning protocol is being applied, wherein the spectroscopic data set is either: energy-resolved x-ray data acquired from x-rays emitted from the crystalline region; or, energy loss data acquired from a beam exiting the sample and the electron microscope is a transmission electron microscope. energy-resolved x-ray data acquired from x-rays emitted from the crystalline region; or, energy loss data acquired from a beam exiting the sample and the electron microscope is a transmission electron microscope.