mhurhangee/patent-ind-claim-en huggingface dataset:
A chemical resistant polymer composition for a center fascia, comprising: a resin composition consisting of 10 to 20% by weight of a polyester copolymer containing a residue of a dicarboxylic acid component containing terephthalic acid and a residue of a diol component containing dianhydrohexitol; 15 to 25% by weight of polytrimethyleneterephthalate; 10 to 20% by weight of one or more copolymers selected from the group consisting of an unsaturated nitrile-diene-based rubber-aromatic vinyl graft copolymer, an alkylmethacrylate-diene-based rubber-aromatic vinyl graft copolymer, and an alkylmethacrylate-silicone/alkylacrylate graft copolymer; 50 to 65% by weight of polycarbonate based on the weight of the resin composition; and 0.1 to 10 parts by weight of a phosphite-based antioxidant, based on 100 parts by weight of the resin composition. a resin composition consisting of 10 to 20% by weight of a polyester copolymer containing a residue of a dicarboxylic acid component containing terephthalic acid and a residue of a diol component containing dianhydrohexitol; 15 to 25% by weight of polytrimethyleneterephthalate; 10 to 20% by weight of one or more copolymers selected from the group consisting of an unsaturated nitrile-diene-based rubber-aromatic vinyl graft copolymer, an alkylmethacrylate-diene-based rubber-aromatic vinyl graft copolymer, and an alkylmethacrylate-silicone/alkylacrylate graft copolymer; 50 to 65% by weight of polycarbonate based on the weight of the resin composition; and 0.1 to 10 parts by weight of a phosphite-based antioxidant, based on 100 parts by weight of the resin composition.
An α-Ga 2 O 3 semiconductor film (101a-b, 121a-c, 131a-c, 141a-c, 151, 151a-b, 152, 161, 162) comprising: a dopant selected from tin, germanium and silicon, wherein the α-Ga 2 O 3 semiconductor film comprises a principal plane that is an m-plane or an a-plane, and wherein the α-Ga 2 O 3 semiconductor film comprises an electron mobility that is 30 cm 2 /Vs or more. a dopant selected from tin, germanium and silicon, wherein the α-Ga 2 O 3 semiconductor film comprises a principal plane that is an m-plane or an a-plane, and wherein the α-Ga 2 O 3 semiconductor film comprises an electron mobility that is 30 cm 2 /Vs or more.
Method for the stimulation of seeds of dicotyledonous plants, wherein the seeds are primed in a solution containing metal nanoparticles and subsequently dried, characterised in that the seeds are primed in a nanocolloidal metal solution containing nonionic metal nanoparticles selected from: silver (Ag), gold (Au), copper (Cu) and platinum (Pt) obtained using a physical method, at a concentration from 0.05 ppm to 50 ppm, to obtain 40-60% by weight of water content, and then dried at room temperature to obtain 10-40% by weight of water content.
An amplifier device with at least one microwave tube , intended to be mounted on a satellite panel supporting the payload, including a high electrical voltage section directly connected to said microwave tube or tubes , a low electrical voltage section , and a low electrical voltage cabling assembly provided with low electrical voltage connectors at the ends thereof connecting said low and high voltage sections , said high voltage section being arranged on the same base plate as the microwave tube or tubes so as to ensure an appropriate contact surface allowing optimum heat exchange with the panel.
A composition comprising, consisting or consisting essentially of an antibody that binds to a cell surface antigen of a tumor, which antigen is subject to receptor mediated endocytosis, and a dynamin-dependent inhibitor of receptor-mediated endocytosis.
A classifier for classifying a given radar track segment obtained from a radar system as being indicative of an aircraft, the radar system having a primary surveillance radar for providing primary radar data and a secondary surveillance radar for providing secondary radar data, wherein the classifier comprises: a) a pre-processing stage , the preprocessing stage forms the given radar track segment and generates principal track data based on the primary radar data or a combination of secondary and primary radar data, and extension track data based on the primary radar data; b) a feature extraction stage connected to the pre-processing stage, the feature extraction stage processes at least one of the principal and extension track data associated with the given radar track segment to provide a plurality of feature values; c) a classification stage connected to the feature extraction stage, the classification stage generates a principal classification result and an extension classification result for the given radar track segment based on at least a portion of the feature values; and, d) a combiner stage connected to the classification stage, the combiner stage combines the extension and principal classification results to provide a classification result for the given radar track segment, wherein the combiner stage further combines the extension and principal classification results with the classification result of at least one previous radar track segment associated with the given radar track segment to provide a classification result for the given radar track segment. a) a pre-processing stage , the preprocessing stage forms the given radar track segment and generates principal track data based on the primary radar data or a combination of secondary and primary radar data, and extension track data based on the primary radar data; b) a feature extraction stage connected to the pre-processing stage, the feature extraction stage processes at least one of the principal and extension track data associated with the given radar track segment to provide a plurality of feature values; c) a classification stage connected to the feature extraction stage, the classification stage generates a principal classification result and an extension classification result for the given radar track segment based on at least a portion of the feature values; and, d) a combiner stage connected to the classification stage, the combiner stage combines the extension and principal classification results to provide a classification result for the given radar track segment, wherein the combiner stage further combines the extension and principal classification results with the classification result of at least one previous radar track segment associated with the given radar track segment to provide a classification result for the given radar track segment.
A bleed valve for a gas turbine engine , comprising: a housing that defines an inlet upstream from an outlet , the bleed valve including a poppet movable relative to the housing between a first position, in which the poppet closes the inlet, and a second position, in which the inlet is open and configured to receive a fluid flow, the housing defining a tortuous path for the fluid flow from the inlet to the outlet configured to reduce a pressure of the fluid flow from the inlet to the outlet within the housing, the tortuous path defined by a plurality of rings (216a-d) positioned about the poppet within the housing, each ring of the plurality of rings spaced apart from an adjacent ring of the plurality of rings between the inlet and the outlet to define the tortuous path, with a first ring defined about the inlet and a second ring defined about the inlet, and the second ring is defined between the first ring and an endwall of the housing.
Method for producing a glass fibre product wherein the molten glass is transformed into glass fibre product by: ∘ spinning the molten glass into at least one thread , ∘ drawing the at least one thread into one or more filaments , ∘ sizing the filament(s) , ∘ collecting the filament(s) , ∘ producing the glass fibre product by means of the collected, drawn filament(s), and ∘ thermal de-sizing of the glass fibre product , method wherein the molten glass is produced in a melting furnace heated by combustion of a fuel with a rich oxidant having an oxygen content of 80%vol. to 100%vol., with heat generation and fumes, said fumes generated being evacuated from the melting furnace at a temperature of between 1000°C and 1600°C, the method being characterised in that : ∘ air is heated by heat exchange with fumes evacuated into a heat exchange unit with obtention of hot air , ∘ a reagent selected from among rich oxidants and gaseous fuels is preheated by heat exchange with the hot air in the heat exchange unit with obtention, on the one hand, of preheated reagent and, on the other hand, of temperate air at a temperature of between 200°C and 500°C, ∘ the preheated reagent is used as a combustion reagent in the melting furnace , ∘ the temperate air coming from the heat exchange unit is implemented during the thermal de-sizing step, preferably by putting the temperate air in contact with the glass fibre product during the de-sizing, in order to promote the volatilisation and/or the combustion of the sizing present on the glass fibre product . ∘ spinning the molten glass into at least one thread , ∘ drawing the at least one thread into one or more filaments , ∘ sizing the filament(s) , ∘ collecting the filament(s) , ∘ producing the glass fibre product by means of the collected, drawn filament(s), and ∘ thermal de-sizing of the glass fibre product , ∘ air is heated by heat exchange with fumes evacuated into a heat exchange unit with obtention of hot air , ∘ a reagent selected from among rich oxidants and gaseous fuels is preheated by heat exchange with the hot air in the heat exchange unit with obtention, on the one hand, of preheated reagent and, on the other hand, of temperate air at a temperature of between 200°C and 500°C, ∘ the preheated reagent is used as a combustion reagent in the melting furnace , ∘ the temperate air coming from the heat exchange unit is implemented during the thermal de-sizing step, preferably by putting the temperate air in contact with the glass fibre product during the de-sizing, in order to promote the volatilisation and/or the combustion of the sizing present on the glass fibre product .
A system for detecting and analyzing vibrations, comprising a first vibration analyzer (100A-C), a networked computing device and a second vibration analyzer, said vibration analyzers each comprising: a) an interface port , configured to interface various connectors to network the vibration analyzer (100A-C) to the networked computing device; b) a three-axis accelerometer configured to detect a vibration of a vehicle component; c) a controller configured to control a function of the vibration analyzer (100A-C), the controller being configured to communicate with the interface port and the three-axis accelerometer ; and d) a housing that houses the interface port , the three-axis accelerometer and the controller ; e) wherein the controller receives vehicle data through the interface port from an electronic control unit of a vehicle and vibration data from the three-axis accelerometer and the controller analyzes the vibration data and the vehicle data to determine a source of the vibration of the vehicle component; the system being characterized in that : f) the housing is formable to a shape similar to a portion of the vehicle component; and g) the first vibration analyzer (100A-C) is configured to perform a test by sending a first vibration signal to the networked computing device, which receives a second vibration signal from the second vibration analyzer (100A-C) positioned on the same vehicle component to determine if the first and the second vibration signals are different. a) an interface port , configured to interface various connectors to network the vibration analyzer (100A-C) to the networked computing device; b) a three-axis accelerometer configured to detect a vibration of a vehicle component; c) a controller configured to control a function of the vibration analyzer (100A-C), the controller being configured to communicate with the interface port and the three-axis accelerometer ; and d) a housing that houses the interface port , the three-axis accelerometer and the controller ; e) wherein the controller receives vehicle data through the interface port from an electronic control unit of a vehicle and vibration data from the three-axis accelerometer and the controller analyzes the vibration data and the vehicle data to determine a source of the vibration of the vehicle component; f) the housing is formable to a shape similar to a portion of the vehicle component; and g) the first vibration analyzer (100A-C) is configured to perform a test by sending a first vibration signal to the networked computing device, which receives a second vibration signal from the second vibration analyzer (100A-C) positioned on the same vehicle component to determine if the first and the second vibration signals are different.
Method for determining an open circuit voltage of an electrochemical device, implemented by computer means, comprising: a. collecting measurement data of the device, said measurements i. including at least the current I t and the voltage U t at the terminals of the device, ii. being time-stamped, and iii. being acquired during an uninterrupted and operational functional period of the device; b. calculating, for a plurality of times t, iv. a corrected intensity I cor,t by applying a correction function to the measured intensity I t , and v. an instantaneous charge Q t based on a time series of the corrected intensity I cor so as to obtain, for each time t, a set of collected and calculated data I t , U t , I cor,t , Q t ; c. grouping the data sets into ranges of instantaneous charge values based on said charge value of each set; d. separately for each group, calculating an open circuit voltage of the device. a. collecting measurement data of the device, said measurements i. including at least the current I t and the voltage U t at the terminals of the device, ii. being time-stamped, and iii. being acquired during an uninterrupted and operational functional period of the device; i. including at least the current I t and the voltage U t at the terminals of the device, ii. being time-stamped, and iii. being acquired during an uninterrupted and operational functional period of the device; b. calculating, for a plurality of times t, iv. a corrected intensity I cor,t by applying a correction function to the measured intensity I t , and v. an instantaneous charge Q t based on a time series of the corrected intensity I cor so as to obtain, for each time t, a set of collected and calculated data I t , U t , I cor,t , Q t ; iv. a corrected intensity I cor,t by applying a correction function to the measured intensity I t , and v. an instantaneous charge Q t based on a time series of the corrected intensity I cor c. grouping the data sets into ranges of instantaneous charge values based on said charge value of each set; d. separately for each group, calculating an open circuit voltage of the device.
A device for controlling a medical device, , comprising: a radio frequency, RF, circuit configured to exchange RF signals with the medical device; a memory device; and a processing device connected to the RF circuit and the memory device and configured to employ a selected one of at least two wireless communication protocols to exchange, via the RF circuit, RF signals with the medical device, wherein the at least two wireless communication protocols comprises a first communication protocol that is employed by the processing device to pair the device with the medical device to securely send secure information chosen from configuration data, medical device operation data, and control signals to operate the medical device, and a second communication protocol that is employed by the processing device to pair with one or more devices different from the medical device and to send information chosen from medical device data and notifications that requires less security than the secure information to the one or more other devices, wherein the device is configured to constrain the secure information chosen from the configuration data, the medical device operation date, and the control signals to communication via the first communication protocol by providing the secure information with metadata to signify that the first communication protocol is needed to exchange the secure information between the device and the medical device and to preclude communication of the secured information to the one or more other devices that do not also employ the first communication protocol. a radio frequency, RF, circuit configured to exchange RF signals with the medical device; a memory device; and a processing device connected to the RF circuit and the memory device and configured to employ a selected one of at least two wireless communication protocols to exchange, via the RF circuit, RF signals with the medical device, wherein the at least two wireless communication protocols comprises a first communication protocol that is employed by the processing device to pair the device with the medical device to securely send secure information chosen from configuration data, medical device operation data, and control signals to operate the medical device, and a second communication protocol that is employed by the processing device to pair with one or more devices different from the medical device and to send information chosen from medical device data and notifications that requires less security than the secure information to the one or more other devices, wherein the device is configured to constrain the secure information chosen from the configuration data, the medical device operation date, and the control signals to communication via the first communication protocol by providing the secure information with metadata to signify that the first communication protocol is needed to exchange the secure information between the device and the medical device and to preclude communication of the secured information to the one or more other devices that do not also employ the first communication protocol.
A nanogel comprising nanoparticles, individual and/or inter connected, having a core and a shell; wherein the nanoparticles comprise self-assembled dendritic containing polymers having a scaffold architecture of dendritic linear dendritic (DLD) wherein the degree of branching of the hydrophobic segment is <1 and wherein the dendritic segments form the core and the linear hydrophilic segment forms the shell; wherein the hydrophilic segment is or comprises polyethylene glycol (PEG) and the hydrophobic segments are dendritic 2,2-Bis(hydroxymethyl)propionic acid (bis-MPA) molecules modified with allyl groups; wherein the core of said nanoparticles is either anionic, cationic, hydrophilic and/or hydrophobic; and wherein the hydrophobic segments are crosslinked via said allyl groups. wherein the nanoparticles comprise self-assembled dendritic containing polymers having a scaffold architecture of dendritic linear dendritic (DLD) wherein the degree of branching of the hydrophobic segment is <1 and wherein the dendritic segments form the core and the linear hydrophilic segment forms the shell; wherein the hydrophilic segment is or comprises polyethylene glycol (PEG) and the hydrophobic segments are dendritic 2,2-Bis(hydroxymethyl)propionic acid (bis-MPA) molecules modified with allyl groups; wherein the core of said nanoparticles is either anionic, cationic, hydrophilic and/or hydrophobic; and wherein the hydrophobic segments are crosslinked via said allyl groups.
A patient position display system comprising: a position information transmitter adapted to transmit position information on a position of a place; a medical transmitter attachable to a patient and adapted to detect and transmit biological information on the patient, the medical transmitter being adapted to receive the position information from the position information transmitter and to transmit the position information when receiving the position information; an antenna adapted to receive the position information and the biological information from the medical transmitter; and a display device adapted to display a position and a state of the patient based on the position information and biological information received by the antenna, characterised in that the display device is adapted to be able to select to display or not to display the position of the patient, wherein the display device is configured to determine whether the state of the patient is normal or abnormal, based on the biological information transmitted from the medical transmitter , when determining that the state of the patient is normal, the display device is configured to not display the position of the patient, and when determining that the state of the patient is abnormal, the display device is configured to display the position of the patient. a position information transmitter adapted to transmit position information on a position of a place; a medical transmitter attachable to a patient and adapted to detect and transmit biological information on the patient, the medical transmitter being adapted to receive the position information from the position information transmitter and to transmit the position information when receiving the position information; an antenna adapted to receive the position information and the biological information from the medical transmitter; and a display device adapted to display a position and a state of the patient based on the position information and biological information received by the antenna, characterised in that the display device is adapted to be able to select to display or not to display the position of the patient, wherein the display device is configured to determine whether the state of the patient is normal or abnormal, based on the biological information transmitted from the medical transmitter , when determining that the state of the patient is normal, the display device is configured to not display the position of the patient, and when determining that the state of the patient is abnormal, the display device is configured to display the position of the patient.