mhurhangee/patent-ind-claim-en huggingface dataset:
An electric propulsion unit for an aircraft, comprising: a fan configured to produce a pressured airflow (P) by raising the pressure of an incident airflow (I); an electric machine arranged to drive the fan and which is located within a casing ; a primary cooling circuit located within the casing, and including the electric machine and a first pass of a fluid-fluid heat exchanger , thereby placing the electric machine and the fluid-fluid heat exchanger in thermal communication; a secondary cooling circuit including a second pass of the fluid-fluid heat exchanger and an air-fluid heat exchanger located within the pressurised airflow produced by the fan, thereby placing the fluid-fluid heat exchanger and the air-fluid heat exchanger in thermal communication; characterised in that the fluid-fluid heat exchanger is a first fluid-fluid heat exchanger , and the primary cooling circuit further includes a first pass of a second fluid-fluid heat exchanger ; and the secondary cooling circuit is a first secondary cooling circuit , and the electric propulsion unit further comprises a second secondary cooling circuit including a second pass of the second fluid-fluid heat exchanger and a second air-fluid heat exchanger located within the pressurised airflow produced by the fan, thereby placing the second fluid-fluid heat exchanger in thermal communication with the second air-fluid heat exchanger. a fan configured to produce a pressured airflow (P) by raising the pressure of an incident airflow (I); an electric machine arranged to drive the fan and which is located within a casing ; a primary cooling circuit located within the casing, and including the electric machine and a first pass of a fluid-fluid heat exchanger , thereby placing the electric machine and the fluid-fluid heat exchanger in thermal communication; a secondary cooling circuit including a second pass of the fluid-fluid heat exchanger and an air-fluid heat exchanger located within the pressurised airflow produced by the fan, thereby placing the fluid-fluid heat exchanger and the air-fluid heat exchanger in thermal communication; characterised in that the fluid-fluid heat exchanger is a first fluid-fluid heat exchanger , and the primary cooling circuit further includes a first pass of a second fluid-fluid heat exchanger ; and the secondary cooling circuit is a first secondary cooling circuit , and the electric propulsion unit further comprises a second secondary cooling circuit including a second pass of the second fluid-fluid heat exchanger and a second air-fluid heat exchanger located within the pressurised airflow produced by the fan, thereby placing the second fluid-fluid heat exchanger in thermal communication with the second air-fluid heat exchanger.
A projection indication device that generates a projection image to be projected on a parcel (P) based on sensing information of the parcel (P), the device comprising: a processor ; and a memory , wherein, by cooperating with the memory , the processor is configured to: specify the parcel (P) based on sensing information, track the parcel (P) based on a color image of the parcel (P) included in the sensing information, and characterized in that tracking the parcel (P) based on a distance image of the parcel (P) included in the sensing information in a case where overexposure is determined to occur in the color image of the parcel (P) on which a projection image is projected. a processor ; and a memory , wherein, by cooperating with the memory , the processor is configured to: specify the parcel (P) based on sensing information, track the parcel (P) based on a color image of the parcel (P) included in the sensing information, and characterized in that tracking the parcel (P) based on a distance image of the parcel (P) included in the sensing information in a case where overexposure is determined to occur in the color image of the parcel (P) on which a projection image is projected. specify the parcel (P) based on sensing information, track the parcel (P) based on a color image of the parcel (P) included in the sensing information, and characterized in that tracking the parcel (P) based on a distance image of the parcel (P) included in the sensing information in a case where overexposure is determined to occur in the color image of the parcel (P) on which a projection image is projected.
A formulation comprising a fibril or a fibril-forming peptide, wherein the fibril or fibril forming peptide is SEQ ID NO:1053, for use in a method of activating B-1a lymphocytes to treat an inflammatory or autoimmune condition in a subject in need thereof, wherein the inflammatory or autoimmune condition comprises multiple sclerosis, rheumatoid arthritis, arthritis, asthma, chronic obstructive pulmonary disease (COPD), or allergic airway disease, comprising: administering a therapeutically effective amount of the formulation to the respiratory tract of the subject in need thereof, thereby activating B-1a lymphocytes and treating the inflammatory or autoimmune condition in the subject in need thereof. administering a therapeutically effective amount of the formulation to the respiratory tract of the subject in need thereof, thereby activating B-1a lymphocytes and treating the inflammatory or autoimmune condition in the subject in need thereof.
A temperature-raising device for a battery mounted in a vehicle, the temperature-raising device comprising: a battery temperature acquisition unit configured to acquire a temperature of the battery; an environmental temperature acquisition unit configured to acquire an environmental temperature; a heater configured to raise the temperature of the battery; and a controller configured to i) turn ON or OFF the heater based on a result of a comparison between the battery temperature acquired by the battery temperature acquisition unit and a predetermined threshold, characterized in that the controller is further configured to ii) reduce the threshold in accordance with a reduction in the environmental temperature acquired by the environmental temperature acquisition unit. a battery temperature acquisition unit configured to acquire a temperature of the battery; an environmental temperature acquisition unit configured to acquire an environmental temperature; a heater configured to raise the temperature of the battery; and a controller configured to i) turn ON or OFF the heater based on a result of a comparison between the battery temperature acquired by the battery temperature acquisition unit and a predetermined threshold, characterized in that the controller is further configured to ii) reduce the threshold in accordance with a reduction in the environmental temperature acquired by the environmental temperature acquisition unit. i) turn ON or OFF the heater based on a result of a comparison between the battery temperature acquired by the battery temperature acquisition unit and a predetermined threshold, characterized in that the controller is further configured to ii) reduce the threshold in accordance with a reduction in the environmental temperature acquired by the environmental temperature acquisition unit.
An exhaust gas purification apparatus for an internal combustion engine comprising: an electrically heated catalyst arranged in an exhaust passage of an internal combustion engine and including a heat generation element that generates heat by being energized and an exhaust gas purification catalyst ; an electrical energization unit configured to start electrical energization of the electrically heated catalyst before starting of the internal combustion engine ; an obtaining unit configured to obtain an electric resistance value of the electrically heated catalyst after the lapse of a predetermined period of time which is a period of time required for condensed water adhered to the electrically heated catalyst to finish evaporating from the start of energization of the electrically heated catalyst by the electrical energization unit; a calculation unit configured to calculate a heat energy shortage amount which is an amount of heat energy sufficient for raising the temperature of the electrically heated catalyst to a predetermined temperature or above, based on a resistance difference which is a difference between the electric resistance value obtained by the obtaining unit and a predetermined reference resistance value; and a supply unit configured to supply to the electrically heated catalyst an amount of energy required to compensate for the heat energy shortage amount calculated by the calculation unit . an electrically heated catalyst arranged in an exhaust passage of an internal combustion engine and including a heat generation element that generates heat by being energized and an exhaust gas purification catalyst ; an electrical energization unit configured to start electrical energization of the electrically heated catalyst before starting of the internal combustion engine ; an obtaining unit configured to obtain an electric resistance value of the electrically heated catalyst after the lapse of a predetermined period of time which is a period of time required for condensed water adhered to the electrically heated catalyst to finish evaporating from the start of energization of the electrically heated catalyst by the electrical energization unit; a calculation unit configured to calculate a heat energy shortage amount which is an amount of heat energy sufficient for raising the temperature of the electrically heated catalyst to a predetermined temperature or above, based on a resistance difference which is a difference between the electric resistance value obtained by the obtaining unit and a predetermined reference resistance value; and a supply unit configured to supply to the electrically heated catalyst an amount of energy required to compensate for the heat energy shortage amount calculated by the calculation unit .
A method of decoding a data stream from a received signal, the method comprising: determining that the received signal comprises a sequence of one or more chirp signals having a profile of instantaneous frequency ( f i ( t )) variation over time, wherein the chirp signals are generated at a transmitter by circularly time-shifting a single generator chirp signal and the instantaneous frequency ( f i ( t )) of a chirp signal is zero at a unique inversion time ( τ n ), and, for each chirp signal: determining the inversion time of the chirp signal in a synchronized single discriminator stage by comparing by-the-fly the chirp signal in a single correlator with a unique fixed pattern symbol and detecting a correlation peak position, that is univocally related to the time-shift and to the inversion time ( τ n ), and determining that the inversion time ( τ n ) uniquely corresponds to a respective symbol, which represents a sequence of one or more bits; and decoding the received signal by reconstructing the data stream from the sequence of one or more bits corresponding to the respective symbol corresponding to each chirp signal, and wherein the inversion times ( τ n ) of the chirp signals represent the data stream. determining that the received signal comprises a sequence of one or more chirp signals having a profile of instantaneous frequency ( f i ( t )) variation over time, wherein the chirp signals are generated at a transmitter by circularly time-shifting a single generator chirp signal and the instantaneous frequency ( f i ( t )) of a chirp signal is zero at a unique inversion time ( τ n ), and, for each chirp signal: determining the inversion time of the chirp signal in a synchronized single discriminator stage by comparing by-the-fly the chirp signal in a single correlator with a unique fixed pattern symbol and detecting a correlation peak position, that is univocally related to the time-shift and to the inversion time ( τ n ), and determining that the inversion time ( τ n ) uniquely corresponds to a respective symbol, which represents a sequence of one or more bits; and decoding the received signal by reconstructing the data stream from the sequence of one or more bits corresponding to the respective symbol corresponding to each chirp signal, and wherein the inversion times ( τ n ) of the chirp signals represent the data stream.
A vertical polarization antenna comprising: an aperture antenna , which is a flat conductor plate having an aperture , is configured to radiate vertically polarized wave through the aperture, the aperture having a shape bent along a bending line extending in a lengthwise direction of the aperture antenna; and a cavity structure coupled to a rear side of the aperture antenna wherein the aperture includes a top surface and a side surface with reference to the bending line, and the aperture antenna includes a power feeder in a center area of the top surface of the aperture , wherein the power feeder includes a power feeding line extending on the flat conductor plate toward the bending line and a converter extending in the lengthwise direction of the aperture . an aperture antenna , which is a flat conductor plate having an aperture , is configured to radiate vertically polarized wave through the aperture, the aperture having a shape bent along a bending line extending in a lengthwise direction of the aperture antenna; and a cavity structure coupled to a rear side of the aperture antenna wherein the aperture includes a top surface and a side surface with reference to the bending line, and the aperture antenna includes a power feeder in a center area of the top surface of the aperture , wherein the power feeder includes a power feeding line extending on the flat conductor plate toward the bending line and a converter extending in the lengthwise direction of the aperture .
A method for automatically verifying a coupling between a tractor and a stationary first trailer unit , the method comprising; engaging (S1) a wheel brake on the first trailer unit , generating (S2) a propulsion torque by the tractor , determining (S3) a first coupling force between the tractor and the first trailer unit , and verifying (S4) the coupling between the tractor and the first trailer unit based on the determined first coupling force. engaging (S1) a wheel brake on the first trailer unit , generating (S2) a propulsion torque by the tractor , determining (S3) a first coupling force between the tractor and the first trailer unit , and verifying (S4) the coupling between the tractor and the first trailer unit based on the determined first coupling force.
A web of conductive structures comprising: a substrate having first and second faces; a layer of adhesive on the first face of the substrate, wherein the adhesive has deadened areas, where the adhesive is non-tacky, and active areas, where the adhesive is tacking; a plurality of registration marks provided on the first face of the substrate, the plurality of registration marks each provided with an optical brightener; a conductive layer provided over the layer of adhesive in active areas; at least one conductive structure formed by laser cutting of the conductive layer; and wherein the at least one conductive structure is aligned with the registration marks. a substrate having first and second faces; a layer of adhesive on the first face of the substrate, wherein the adhesive has deadened areas, where the adhesive is non-tacky, and active areas, where the adhesive is tacking; a plurality of registration marks provided on the first face of the substrate, the plurality of registration marks each provided with an optical brightener; a conductive layer provided over the layer of adhesive in active areas; at least one conductive structure formed by laser cutting of the conductive layer; and wherein the at least one conductive structure is aligned with the registration marks.
A composition comprising a) a polymeric phase having a glass transition temperature of at least 50°C, b) an elastomeric phase of macromolecular sequences having a flexible nature with a glass transition temperature of less than 20°C, and c) a fluorescent dye; wherein said elastomeric phase of macromolecular sequences with the flexible nature forming the elastomeric phase is part of a block copolymer with at least one block having a glass transition temperature of less than 20°C; said elastomeric phase of macromolecular sequences with the flexible nature being selected from a thermoplastic block copolymer, said thermoplastic block copolymer comprising at least one block which is an acrylic block; and wherein said acrylic block copolymer has a general formula (A) n B in which: • n is an integer of greater than or equal to 1, • A is: an acrylic or methacrylic homo- or copolymer having a Tg of greater than 50°C, or polystyrene, or an acrylic/styrene or methacrylic/styrene copolymer; • B is an acrylic or methacrylic homo- or copolymer having a Tg of less than 20°C; and wherein the polymeric phase having a glass transition temperature of at least 50°C is either the block A of said thermoplastic acrylic block copolymer or another thermoplastic polymer P1; or a mixture of both. a) a polymeric phase having a glass transition temperature of at least 50°C, b) an elastomeric phase of macromolecular sequences having a flexible nature with a glass transition temperature of less than 20°C, and c) a fluorescent dye; wherein said elastomeric phase of macromolecular sequences with the flexible nature forming the elastomeric phase is part of a block copolymer with at least one block having a glass transition temperature of less than 20°C; said elastomeric phase of macromolecular sequences with the flexible nature being selected from a thermoplastic block copolymer, said thermoplastic block copolymer comprising at least one block which is an acrylic block; and wherein said acrylic block copolymer has a general formula (A) n B in which: • n is an integer of greater than or equal to 1, • A is: an acrylic or methacrylic homo- or copolymer having a Tg of greater than 50°C, or polystyrene, or an acrylic/styrene or methacrylic/styrene copolymer; • B is an acrylic or methacrylic homo- or copolymer having a Tg of less than 20°C; • n is an integer of greater than or equal to 1, • A is: an acrylic or methacrylic homo- or copolymer having a Tg of greater than 50°C, or polystyrene, or an acrylic/styrene or methacrylic/styrene copolymer; • B is an acrylic or methacrylic homo- or copolymer having a Tg of less than 20°C; and wherein the polymeric phase having a glass transition temperature of at least 50°C is either the block A of said thermoplastic acrylic block copolymer or another thermoplastic polymer P1; or a mixture of both.
A method performed by an application server, AS , for monitoring an event, the method comprising: transmitting , to a service capability exposure function, SCEF , a monitoring request message including an identifier of a group including a plurality of terminals, a wait time for which at least one of the SCEF , a home subscriber server, HSS , and an entity of managing mobility collects monitoring event results of a user equipment, UE, belonging to the group, and a monitoring type associated with a monitoring event; and receiving a monitoring indication message, transmitted from the SCEF after an expiration of the wait time, including collected monitoring event reports which have been detected for the plurality of terminals. transmitting , to a service capability exposure function, SCEF , a monitoring request message including an identifier of a group including a plurality of terminals, a wait time for which at least one of the SCEF , a home subscriber server, HSS , and an entity of managing mobility collects monitoring event results of a user equipment, UE, belonging to the group, and a monitoring type associated with a monitoring event; and receiving a monitoring indication message, transmitted from the SCEF after an expiration of the wait time, including collected monitoring event reports which have been detected for the plurality of terminals.
Use of a deep eutectic solvent (DES) comprising at least: - one halogenated ammonium, phosphonium or sulfonium salt, and - one compound of formula (I) R 1 R 2 R 3 N, with R 1 being a linear or branched C 1 to C 5 alkyl radical substituted by one or more hydroxyl groups, R 2 and R 3 being selected independently of one another from a hydrogen atom and a linear or branched C 1 to C 5 alkyl radical which may be substituted by one or more hydroxyl groups, for trapping at least one gaseous nitrogen oxide "NOx", in particular at least nitrogen dioxide (NO 2 ). - one halogenated ammonium, phosphonium or sulfonium salt, and - one compound of formula (I) R 1 R 2 R 3 N, with R 1 being a linear or branched C 1 to C 5 alkyl radical substituted by one or more hydroxyl groups, R 2 and R 3 being selected independently of one another from a hydrogen atom and a linear or branched C 1 to C 5 alkyl radical which may be substituted by one or more hydroxyl groups, for trapping at least one gaseous nitrogen oxide "NOx", in particular at least nitrogen dioxide (NO 2 ).
A method of preparing a dispersion (D) comprising: • a continuous hydrophilic phase comprising at least one hydrophilic compound and at least one rheology-modifying compound of the hydrophilic compound, and chosen among the anionic copolymers, and • a lipophilic phase dispersed in the continuous phase in the form of nanometric particles, comprising: - the preparation of a mixture (M) comprising the hydrophilic compound and the rheology-modifying compound of the hydrophilic compound, - the addition of the lipophilic compound in the continuous phase by applying, using a device producing a shear gradient of less than 5,000 s -1 , a stress chosen among a shear stress ranging from 100 to 5,000 Pa and an extensional stress ranging from 100 to 5,000 Pa. • a continuous hydrophilic phase comprising at least one hydrophilic compound and at least one rheology-modifying compound of the hydrophilic compound, and chosen among the anionic copolymers, and • a lipophilic phase dispersed in the continuous phase in the form of nanometric particles, - the preparation of a mixture (M) comprising the hydrophilic compound and the rheology-modifying compound of the hydrophilic compound, - the addition of the lipophilic compound in the continuous phase by applying, using a device producing a shear gradient of less than 5,000 s -1 , a stress chosen among a shear stress ranging from 100 to 5,000 Pa and an extensional stress ranging from 100 to 5,000 Pa.