mhurhangee/patent-ind-claim-en huggingface dataset:
Air duct - having at least one connection point for the feedingin or intake of air, and - having a multiplicity of holes through which air fed in at the at least one connection point exits the air duct towards the outside or air taken in there enters the air duct , wherein, - in the interior of the air duct , there is arranged a separating device which extends along the longitudinal direction of the air duct and subdivides the interior of the air duct into an inner duct section and an outer duct section , wherein the holes of the air duct are situated in the inner duct section and the connection point is situated in the outer duct section , and - the separating device has a plurality of openings which, as viewed in the longitudinal direction of the air duct , are arranged spaced apart from one another and each allow an air flow (L) between the inner duct section and the outer duct section , characterized in that the plane in which the openings of the separating device are situated is arranged transversely to that plane in which the holes of the air duct are situated. - having at least one connection point for the feedingin or intake of air, and - having a multiplicity of holes through which air fed in at the at least one connection point exits the air duct towards the outside or air taken in there enters the air duct , wherein, - in the interior of the air duct , there is arranged a separating device which extends along the longitudinal direction of the air duct and subdivides the interior of the air duct into an inner duct section and an outer duct section , wherein the holes of the air duct are situated in the inner duct section and the connection point is situated in the outer duct section , and - the separating device has a plurality of openings which, as viewed in the longitudinal direction of the air duct , are arranged spaced apart from one another and each allow an air flow (L) between the inner duct section and the outer duct section ,
Method of starting gas delivery from a liquefied gas fuel system to a gas operated engine , wherein - the liquefied gas fuel system comprises a main evaporator in a fuel conduit leading from a fuel tank to an engine , - and a pressure build up system comprising a pressure build up evaporator (22.2) which is arranged in a conduit (22.1) leading from the bottom section of the fuel tank to the upper section of the fuel tank , - and in which method - the fuel tank is filled with liquefied gas by a filling procedure, wherein the filling procedure results in that the pressure in the tank is at least at the operational pressure required by the engine, - the engine is started and operated and thus is producing waste heat, - the waste heat produced by the engine is utilized in a heat transfer medium circuit , which is in heat transfer communication with the engine , and wherein a heat transfer medium is flowing through the main evaporator , and the pressure build up evaporator (22.2), being successively connected in series to the heat transfer medium circuit , - during the operation of the engine after the filling procedure, pressure in the fuel tank is controlled by controlling the operation of the pressure build up system , by controlling the flow rate of the evaporated gas in the conduit (22.1) while the heat transfer medium is allowed to flow without active control through the pressure build up evaporator (22.2) and the main evaporator , which main evaporator evaporates the liquefied gas. - the liquefied gas fuel system comprises a main evaporator in a fuel conduit leading from a fuel tank to an engine , - and a pressure build up system comprising a pressure build up evaporator (22.2) which is arranged in a conduit (22.1) leading from the bottom section of the fuel tank to the upper section of the fuel tank , - and in which method - the fuel tank is filled with liquefied gas by a filling procedure, wherein the filling procedure results in that the pressure in the tank is at least at the operational pressure required by the engine, - the engine is started and operated and thus is producing waste heat, - the waste heat produced by the engine is utilized in a heat transfer medium circuit , which is in heat transfer communication with the engine , and wherein a heat transfer medium is flowing through the main evaporator , and the pressure build up evaporator (22.2), being successively connected in series to the heat transfer medium circuit , - during the operation of the engine after the filling procedure, pressure in the fuel tank is controlled by controlling the operation of the pressure build up system , by controlling the flow rate of the evaporated gas in the conduit (22.1) while the heat transfer medium is allowed to flow without active control through the pressure build up evaporator (22.2) and the main evaporator , which main evaporator evaporates the liquefied gas.
A system, comprising: a first generator configured to operate in a first speed range to produce a predetermined output characteristic; a second generator configured to operate at a second speed range different from the first speed range to produce the predetermined output characteristic; and characterised by a controller configured to activate the first generator at and/or above a first low activation speed and at and/or below a first high activation speed within the first speed range, wherein the controller is configured to activate the second generator at and/or above a second low activation speed within the second speed range, wherein the controller is configured to deactivate the first generator at and/or above a first high deactivation speed, wherein the controller is configured to deactivate the second generator at and/or below a second low deactivation speed. a first generator configured to operate in a first speed range to produce a predetermined output characteristic; a second generator configured to operate at a second speed range different from the first speed range to produce the predetermined output characteristic; and characterised by a controller configured to activate the first generator at and/or above a first low activation speed and at and/or below a first high activation speed within the first speed range, wherein the controller is configured to activate the second generator at and/or above a second low activation speed within the second speed range, wherein the controller is configured to deactivate the first generator at and/or above a first high deactivation speed, wherein the controller is configured to deactivate the second generator at and/or below a second low deactivation speed.
An observation system (S) comprising an observation instrument intended to be placed on board an aircraft or a satellite, said observation instrument comprising a telescope comprising a catadioptric system and a first imaging device that is sensitive in a determined spectral band, the observation instrument comprising: - a "flash lidar" type lidar comprising: - an emission laser emitting pulses with a determined wavelength; - an emission optic ; - the catadioptric system acting as an optic for receiving echoes due to the laser pulses; - a second imaging device ; - a splitter disposed in front of the focal plane of the catadioptric system, said splitter transmitting the wavelength of the emission laser so that the echoes are received by the second imaging device and reflecting the determined spectral band so that the image of a zone observed by the telescope is received by the first imaging device, or vice versa; characterised in that , with a terrestrial observation zone being photographed several times at different instants by the telescope and providing a plurality of two-dimensional digital images allowing a tomographic representation of said observation zone to be provided, the same observation zone being illuminated by a series of laser pulses emitted at different instants by said emission laser and providing a plurality of series of echoes, the image processing means compute a high-resolution three-dimensional digital image of said observation zone based on said tomographic representation and of said plurality of series of echoes. - a "flash lidar" type lidar comprising: - an emission laser emitting pulses with a determined wavelength; - an emission optic ; - the catadioptric system acting as an optic for receiving echoes due to the laser pulses; - a second imaging device ; - a splitter disposed in front of the focal plane of the catadioptric system, said splitter transmitting the wavelength of the emission laser so that the echoes are received by the second imaging device and reflecting the determined spectral band so that the image of a zone observed by the telescope is received by the first imaging device, or vice versa;
A capsule for coin storage and examination comprises a body , an upper insert , a lower insert and a cover , the body and the cover made of a transparent material and joined, the body having an upper part and a lower part, the upper insert and the lower insert fixed inside the upper part and the lower part of the body fix the position of a coin in place inside the body , thus the upper insert and the lower insert jam a coin in between, characterized in that by ultrasonic welding the body and the cover are joined, that the shape of the body constitutes a cylinder with truncated pyramids adjoining the cylinder as the upper part of the body from above and as the lower part of the body from below, which shape in the two-dimensional plane looks like a circle with trapezoids connected thereto and that parts of the cylinder not held by the truncated pyramids, provide overview of the flank known as the rim of a fixed coin, the upper insert and the lower insert each have a shape corresponding to the shape of the upper part and the lower part of the body .
Composition for kneading, comprising: - flour obtained by grinding grains treated with ozone prior to said grinding; - sea salt (NaCl) in a quantity of between at least 1.4% and at least 1.6% by weight relative to the weight of the flour; - water. - flour obtained by grinding grains treated with ozone prior to said grinding; - sea salt (NaCl) in a quantity of between at least 1.4% and at least 1.6% by weight relative to the weight of the flour; - water.
Device for Full Duplex, FD, wireless communications, configured to, in case of a collision between a transmission of the device and a simultaneous transmission of at least one other device , interrupt the transmission , wherein the device is characterized by being further configured to determine a negotiation signal , determine at least one available resource to occupy with the negotiation signal during a negotiation period , transmit the negotiation signal on the at least one available resource and simultaneously receive a negotiation signal on another resource from at least one other device during the negotiation period , and decide,based on all negotiation signals , whether to retransmit the interrupted transmission after the negotiation period . interrupt the transmission , wherein the device is characterized by being further configured to determine a negotiation signal , determine at least one available resource to occupy with the negotiation signal during a negotiation period , transmit the negotiation signal on the at least one available resource and simultaneously receive a negotiation signal on another resource from at least one other device during the negotiation period , and decide,based on all negotiation signals , whether to retransmit the interrupted transmission after the negotiation period .
Mixing cartridge, comprising: - a cartridge body ; - an actuation lever - a fixed plate provided at least in part within the cartridge body , the fixed plate comprising input openings for the separate inflow of hot and cold water and an output opening for the outflow of mixed water; and - a movable element comprising a movable plate provided within the cartridge body and coupled to the actuation lever to be moved on or with respect to the fixed plate by acting on the actuation lever , said movable plate internally defining a mixing chamber open towards said fixed plate and which selectively communicates or blocks the communication of said input openings , in part or completely, with said output opening ; wherein the mixing cartridge comprises a flow rate limiting arrangement placed within the cartridge body in the path followed by the water flow between said inflows and said outflow, so that the flow rate of said water is limited, wherein said flow rate limiting arrangement comprises a permeable barrier having a permeability distribution selected and predetermined to affect at least portions of said water flow so that a required limited water flow rate is provided thereto, wherein said permeable barrier comprises a wall (W2) having a plurality of through holes (h) providing said permeability to the barrier, and distributed according to at least two separate holes distribution patterns defined in two corresponding separate regions of the wall (W2), each of said holes distribution patterns interposed in one of said inflows of hot and cold water, so that the flow rate thereof is limited when passing through the holes (h) of the respective holes distribution pattern, wherein said wall (W2) is placed outside the mixing chamber , characterized in that said wall (W2) is integral with the fixed plate , and in that said plurality of through holes (h) traverse the whole thickness of the wall (W2) up to a sealing contact area between the fixed plate and the movable plate , so that said input openings are constituted by said through holes (h) of two of said respective holes distribution patterns. - a cartridge body ; - an actuation lever - a fixed plate provided at least in part within the cartridge body , the fixed plate comprising input openings for the separate inflow of hot and cold water and an output opening for the outflow of mixed water; and - a movable element comprising a movable plate provided within the cartridge body and coupled to the actuation lever to be moved on or with respect to the fixed plate by acting on the actuation lever , said movable plate internally defining a mixing chamber open towards said fixed plate and which selectively communicates or blocks the communication of said input openings , in part or completely, with said output opening ;
A welding system comprising: - one or more sensors configured to detect data relating to one or more arc parameters for the welding system during a weld performed by the welding system ; and - control circuitry configured to: - receive the data corresponding to the one or more arc parameters from the one or more sensors ; - time synchronize the data corresponding to the one or more arc parameters with data relating to one or more welding parameters over a time period for the weld; - present the data corresponding to the one or more arc parameters graphically over the time period via a user-viewable screen during the weld; and - present the data corresponding to the one or more welding parameters graphically over the time period via the user-viewable screen during the weld, characterized in that the control circuitry is further configured to depict an overall status bar on the screen including indications of whether all of the welding parameters are within their respective upper and lower limits or not, wherein the control circuitry is configured to calculate a score for each arc parameter, and to present the respective score via the user-viewable screen aligned with a respective graph of data relating to the respective parameter. - one or more sensors configured to detect data relating to one or more arc parameters for the welding system during a weld performed by the welding system ; and - control circuitry configured to: - receive the data corresponding to the one or more arc parameters from the one or more sensors ; - time synchronize the data corresponding to the one or more arc parameters with data relating to one or more welding parameters over a time period for the weld; - present the data corresponding to the one or more arc parameters graphically over the time period via a user-viewable screen during the weld; and - present the data corresponding to the one or more welding parameters graphically over the time period via the user-viewable screen during the weld, characterized in that the control circuitry is further configured to depict an overall status bar on the screen including indications of whether all of the welding parameters are within their respective upper and lower limits or not, wherein the control circuitry is configured to calculate a score for each arc parameter, and to present the respective score via the user-viewable screen aligned with a respective graph of data relating to the respective parameter. - receive the data corresponding to the one or more arc parameters from the one or more sensors ; - time synchronize the data corresponding to the one or more arc parameters with data relating to one or more welding parameters over a time period for the weld; - present the data corresponding to the one or more arc parameters graphically over the time period via a user-viewable screen during the weld; and - present the data corresponding to the one or more welding parameters graphically over the time period via the user-viewable screen during the weld,
An apparatus, comprising: a system-on-chip having at least one analog block , an input/output interface , and a processing unit ; a data test block coupled to the input/output interface , wherein the input/output interface is coupled to the at least one analog block ; a link test block coupled to the at least one analog block ; and a test interface coupled to the link test block ; wherein the processing unit is coupled to the input/output interface to control access to the at least one analog block ; wherein the processing unit is coupled to the data test block and configured to execute test code having at least one test pattern; wherein the data test block under control of the test code executed by the processing unit is configured to test the at least one analog block with the test pattern; and wherein the link test block is separately controllable via the test interface to adjust operating parameters of the at least one analog block . a system-on-chip having at least one analog block , an input/output interface , and a processing unit ; a data test block coupled to the input/output interface , wherein the input/output interface is coupled to the at least one analog block ; a link test block coupled to the at least one analog block ; and a test interface coupled to the link test block ; wherein the processing unit is coupled to the input/output interface to control access to the at least one analog block ; wherein the processing unit is coupled to the data test block and configured to execute test code having at least one test pattern; wherein the data test block under control of the test code executed by the processing unit is configured to test the at least one analog block with the test pattern; and wherein the link test block is separately controllable via the test interface to adjust operating parameters of the at least one analog block .
A writing device comprising: an electromagnetic, EM, tracking module to measure a magnitude and/or phase of a generated EM field and to generate, using measured magnitude and/or phase field values, EM pose data indicative of a relative pose between an EM transmitter and an EM receiver ; a processor to process the EM pose data for identification of a pose of the writing device based on the relative pose; a sensor to generate a first sensor pose of the writing device based on sensor data; characterized in that the processor is configured to identify the pose of the writing device based on a weighted combination of the relative pose and the first sensor pose. an electromagnetic, EM, tracking module to measure a magnitude and/or phase of a generated EM field and to generate, using measured magnitude and/or phase field values, EM pose data indicative of a relative pose between an EM transmitter and an EM receiver ; a processor to process the EM pose data for identification of a pose of the writing device based on the relative pose; a sensor to generate a first sensor pose of the writing device based on sensor data; characterized in that the processor is configured to identify the pose of the writing device based on a weighted combination of the relative pose and the first sensor pose.
Device for entangling a plurality of individual threads (6.1, 6.2, 6.3) of a composite thread in a melt-spinning process for the production of crimped yarns, having a plurality of entanglement nozzles (10.2, 10.3, 10.4) which are collectively held on a support (10.1), characterized in that the entanglement nozzles (10.2, 10.3, 10.4) on the support (10.1) are assigned at least one thread guide (10.5) in such a manner that the threads (6.1, 6.2, 6.3) are guidable optionally in the entanglement nozzles (10.2, 10.3, 10.4) and/or in the thread guide (10.5).
Formulation comprising dronedarone or one of its pharmaceutically acceptable salts for topical administration, wherein said formulation is a hydro-alcoholic gel, for use in the treatment of leishmaniasis.
A method of making a patient-adapted acetabular implant component for treatment of a hip joint of a patient, the hip joint including an acetabular cavity, the implant component comprising: an acetabular cup component , wherein the acetabular cup component comprises: a cup portion having a substantially hemispherical shape and an attachment mechanism; and a rim portion having a complementary attachment mechanism configured to attach the rim portion to the cup portion , wherein the rim side matches at least a portion of the rim of the acetabular cavity , wherein the method comprises choosing a cup portion which is a standard, non-patient-specific size, wherein the method comprises making at least one feature of the acetabular cup component patient-adapted, wherein the at least one patient-adapted feature is derived from image data of at least a portion of the patient's hip joint, wherein the at least one patient-adapted feature of the acetabular cup component is a feature selected from the group consisting of: a locking mechanism; one or more screw holes; a radius of the acetabular cup component; and combinations thereof. an acetabular cup component , wherein the acetabular cup component comprises: a cup portion having a substantially hemispherical shape and an attachment mechanism; and a rim portion having a complementary attachment mechanism configured to attach the rim portion to the cup portion , wherein the rim side matches at least a portion of the rim of the acetabular cavity , wherein the method comprises choosing a cup portion which is a standard, non-patient-specific size, wherein the method comprises making at least one feature of the acetabular cup component patient-adapted, wherein the at least one patient-adapted feature is derived from image data of at least a portion of the patient's hip joint, wherein the at least one patient-adapted feature of the acetabular cup component is a feature selected from the group consisting of: a locking mechanism; one or more screw holes; a radius of the acetabular cup component; and combinations thereof. a cup portion having a substantially hemispherical shape and an attachment mechanism; and a rim portion having a complementary attachment mechanism configured to attach the rim portion to the cup portion , wherein the rim side matches at least a portion of the rim of the acetabular cavity , wherein the method comprises choosing a cup portion which is a standard, non-patient-specific size, wherein the method comprises making at least one feature of the acetabular cup component patient-adapted, wherein the at least one patient-adapted feature is derived from image data of at least a portion of the patient's hip joint, wherein the at least one patient-adapted feature of the acetabular cup component is a feature selected from the group consisting of: a locking mechanism; one or more screw holes; a radius of the acetabular cup component; and combinations thereof.