mhurhangee/patent-ind-claim-en huggingface dataset:
A tank system for a motor vehicle with an internal combustion engine , in particular for a utility vehicle with a diesel engine , with a) a fuel tank for receiving a fuel, in particular a diesel fuel, for the operation of the internal combustion engine , and b) a suction jet pump for conveying the fuel from the fuel tank , with b1) a pump inlet for the intake of the fuel from the fuel tank , b2) a pump outlet for the discharge of the conveyed fuel, and b3) a propellant inlet for feeding in a propellant, c) the fuel tank being an additional tank , and the suction jet pump conveying the fuel from the additional tank into a main tank , from which the internal combustion engine is supplied with the fuel, characterized d) in that the pump inlet , the pump outlet and the propellant inlet are configured in each case as plug-in connectors, e) in that the propellant inlet and the pump outlet are arranged next to one another in a common connector plane, and point with their free ends in the same direction, and f) in that the pump inlet is oriented at a right angle with respect to the connector plane of the propellant inlet and the pump outlet . a) a fuel tank for receiving a fuel, in particular a diesel fuel, for the operation of the internal combustion engine , and b) a suction jet pump for conveying the fuel from the fuel tank , with b1) a pump inlet for the intake of the fuel from the fuel tank , b2) a pump outlet for the discharge of the conveyed fuel, and b3) a propellant inlet for feeding in a propellant, b1) a pump inlet for the intake of the fuel from the fuel tank , b2) a pump outlet for the discharge of the conveyed fuel, and b3) a propellant inlet for feeding in a propellant, c) the fuel tank being an additional tank , and the suction jet pump conveying the fuel from the additional tank into a main tank , from which the internal combustion engine is supplied with the fuel, characterized d) in that the pump inlet , the pump outlet and the propellant inlet are configured in each case as plug-in connectors, e) in that the propellant inlet and the pump outlet are arranged next to one another in a common connector plane, and point with their free ends in the same direction, and f) in that the pump inlet is oriented at a right angle with respect to the connector plane of the propellant inlet and the pump outlet .
A method for preparing a porous lithium manganese phosphate-carbon composite material, the porous lithium manganese phosphate-carbon composite material wherein multiple nano-pores are distributed in the composite material, the composite material comprises lithium manganese phosphate material and 0.1 wt% to 30 wt% of carbon, and the lithium manganese phosphate material contains compounds in a general formula of LiMn x M 1-x PO 4 , where M comprises any one of Fe, Co, Ni, Mg, Cu, Zn, Zr, Ti, Al, Cr and Ge, and 0.7≤x<0.8, the carbon is at least from amorphous carbon and/or carbon nanotubes and/or carbon nanofibers contained in the composite material, and when the carbon is from the carbon nanotubes and/or the carbon nanofibers contained in the composite material, a distance from the carbon nanotubes or carbon nanofibers to the surface of the compounds is less than 1 nm; the method for preparing a porous lithium manganese phosphate-carbon composite material characterized in that it comprises the following steps of: mixing a pyrophosphate material with a lithium source, or optionally further with one or more than two of a doped metal source, a phosphorous source and a carbon source, to obtain a reaction precursor, and then calcining the reaction precursor at a constant temperature under a protective atmosphere or an air atmosphere to obtain the porous lithium manganese phosphate-carbon composite material; and wherein the pyrophosphate material contains compounds in a general formula of (Mn x M 1-x ) 2 P 2 O 7 and 0 wt% to 30 wt% of carbon, where M is any one of Fe, Co, Ni, Mg, Cu, Zn, Zr, Ti, Al, Cr and Ge, and where 0.7≤x<0.8.
Process for producing a self-sealing tyre sealant containing at least one crosslinking chemical, characterized in that at least one crosslinking chemical in a liquid composition Z having a dynamic shear viscosity at 20°C of 1 to 1000 mPas is added.
A storage compartment device for a galley of an aircraft with a storage compartment for receiving at least one rolling container or at least one container , characterized in that foldable guiding and holding devices are provided in the storage compartment and designed for only holding the at least one container in the storage compartment in a folded-out state and for only allowing the at least one rolling container to be received in the storage compartment in a folded-in state.
Rupture disc assembly - having a one-part or multi-part body which has an opening which forms an outlet for a line or a container , - having a rupture disc which closes the opening and which ruptures when a rupture pressure is applied, in order to unblock the opening, and - having an actuator for reducing the rupture pressure, wherein the actuator has a rod , in particular a tappet , which is suitable and designed to reduce the rupture pressure on the rupture disc , in particular can impact against the rupture disc , - wherein the rupture disc assembly has a housing which accommodates the actuator and has a housing opening for the rod , in particular the tappet , - wherein the housing opening is closed with a lid , wherein the lid and the actuator are correlated such that when the actuator is actuated the force acting on the rod of the actuator is sufficient to break through the lid , closing the housing opening, with the rod , characterised in that - when the actuator is actuated the force acting on the rod of the actuator is sufficient to strike with the rod against the rupture disc . - having a one-part or multi-part body which has an opening which forms an outlet for a line or a container , - having a rupture disc which closes the opening and which ruptures when a rupture pressure is applied, in order to unblock the opening, and - having an actuator for reducing the rupture pressure, wherein the actuator has a rod , in particular a tappet , which is suitable and designed to reduce the rupture pressure on the rupture disc , in particular can impact against the rupture disc , - wherein the rupture disc assembly has a housing which accommodates the actuator and has a housing opening for the rod , in particular the tappet , - wherein the housing opening is closed with a lid , wherein the lid and the actuator are correlated such that when the actuator is actuated the force acting on the rod of the actuator is sufficient to break through the lid , closing the housing opening, with the rod , characterised in that - when the actuator is actuated the force acting on the rod of the actuator is sufficient to strike with the rod against the rupture disc .
A composite manufacturing system comprising: a press comprising: an upper portion ; and a lower portion having a desired shape for a composite structure , wherein the lower portion is configured to receive layers of composite material ; a bladder associated with the upper portion of the press and configured to reach a superplastic state when heated such that the bladder forms the composite structure by applying pressure to the layers of composite material ; and characterized by a support structure , which takes the form of a frame , connected to the upper portion of the press and configured to hold the bladder in place during formation of the composite structure (204, wherein the frame is configured to apply pressure around a portion of the bladder to create an air-tight seal to hold the bladder in place. a press comprising: an upper portion ; and a lower portion having a desired shape for a composite structure , wherein the lower portion is configured to receive layers of composite material ; an upper portion ; and a lower portion having a desired shape for a composite structure , wherein the lower portion is configured to receive layers of composite material ; a bladder associated with the upper portion of the press and configured to reach a superplastic state when heated such that the bladder forms the composite structure by applying pressure to the layers of composite material ; and characterized by a support structure , which takes the form of a frame , connected to the upper portion of the press and configured to hold the bladder in place during formation of the composite structure (204, wherein the frame is configured to apply pressure around a portion of the bladder to create an air-tight seal to hold the bladder in place.
A non-nitrocellulose propellant composition comprising the following components in the following relative proportions: component A; of from 8% to 12% by weight of an IM energetic filler; component B: of from 65% to 75% by weight of a highly energetic filler comprising at least one nitramine compound; component C: of from 8% to 12% by weight of a binder, wherein the non-energetic binder is present in the range of from 8%-12% by weight; and component D: of from 2% to 10%, wherein the energetic plasticiser is present in the range of from 3%- 8% by weight, non-energetic plasticiser is present in the range of from 2%-6% by weight, of the said composition, by weight of a plasticiser, the percentages by weight of components A, B ,C and D together with minor additives, if any, adding to 100%. component A; of from 8% to 12% by weight of an IM energetic filler; component B: of from 65% to 75% by weight of a highly energetic filler comprising at least one nitramine compound; component C: of from 8% to 12% by weight of a binder, wherein the non-energetic binder is present in the range of from 8%-12% by weight; and component D: of from 2% to 10%, wherein the energetic plasticiser is present in the range of from 3%- 8% by weight, non-energetic plasticiser is present in the range of from 2%-6% by weight, of the said composition, by weight of a plasticiser, the percentages by weight of components A, B ,C and D together with minor additives, if any, adding to 100%.
A method for manufacturing a heat transfer tube comprising a superhydrophobic surface, the method comprising: ultrasonicating a heat transfer tube using an organic solvent; washing (S100) the ultrasonicated heat transfer tube; removing a metal oxide on a surface of the heat transfer tube by dipping the washed heat transfer tube into an acidic solution; preparing (S200) a dipping solution configured to form nanostructures on a surface of the heat transfer tube; and dipping (S300) the heat transfer tube with the metal oxide removed into the dipping solution for forming nanostructures on the surface of the heat transfer tube. ultrasonicating a heat transfer tube using an organic solvent; washing (S100) the ultrasonicated heat transfer tube; removing a metal oxide on a surface of the heat transfer tube by dipping the washed heat transfer tube into an acidic solution; preparing (S200) a dipping solution configured to form nanostructures on a surface of the heat transfer tube; and dipping (S300) the heat transfer tube with the metal oxide removed into the dipping solution for forming nanostructures on the surface of the heat transfer tube.
Flat wound care article comprising • a main surface which is a non-equilateral rectangle or is derived therefrom, has at least one rounded corner, and a recess arranged on a longitudinal side, which recess is circular-segment-shaped or elliptical-segment-shaped; • a flat layer comprising a super-absorbent polymer, • a shell surrounding the flat layer, which shell consists at least partially of a liquid-permeable material, • wherein the flat layer has, in a plan view of its flat side, a surface area (F1) which, in the non-wetted state, is 3% to 75% smaller than the surface area (F2) of the interior provided by the shell or the shell seam. • a main surface which is a non-equilateral rectangle or is derived therefrom, has at least one rounded corner, and a recess arranged on a longitudinal side, which recess is circular-segment-shaped or elliptical-segment-shaped; • a flat layer comprising a super-absorbent polymer, • a shell surrounding the flat layer, which shell consists at least partially of a liquid-permeable material, • wherein the flat layer has, in a plan view of its flat side, a surface area (F1) which, in the non-wetted state, is 3% to 75% smaller than the surface area (F2) of the interior provided by the shell or the shell seam.
A mobile X-ray apparatus comprising: an X-ray radiation device configured to emit X-rays; a controller configured to control the X-ray radiation device ; a power supply comprising a lithium ion battery and configured to supply operating power to the X-ray radiation device and the controller from the lithium ion battery , and to control overcurrent that occurs during emission of the X-rays by the X-ray radiation device ; and a charger configured to charge the lithium ion battery , characterised in that the power supply comprises: a first temperature sensor configured to detect a first temperature of the power supply , a battery management system , BMS, configured to use the first temperature sensor to monitor the first temperature of the power supply and determine whether the power supply is overheated, and a second temperature sensor configured to detect a second temperature within the power supply , the controller being further configured to directly monitor information about the second temperature detected by the second temperature sensor . an X-ray radiation device configured to emit X-rays; a controller configured to control the X-ray radiation device ; a power supply comprising a lithium ion battery and configured to supply operating power to the X-ray radiation device and the controller from the lithium ion battery , and to control overcurrent that occurs during emission of the X-rays by the X-ray radiation device ; and a charger configured to charge the lithium ion battery , characterised in that the power supply comprises: a first temperature sensor configured to detect a first temperature of the power supply , a battery management system , BMS, configured to use the first temperature sensor to monitor the first temperature of the power supply and determine whether the power supply is overheated, and a second temperature sensor configured to detect a second temperature within the power supply , the controller being further configured to directly monitor information about the second temperature detected by the second temperature sensor . a first temperature sensor configured to detect a first temperature of the power supply , a battery management system , BMS, configured to use the first temperature sensor to monitor the first temperature of the power supply and determine whether the power supply is overheated, and a second temperature sensor configured to detect a second temperature within the power supply , the controller being further configured to directly monitor information about the second temperature detected by the second temperature sensor .
A method for preparing a perovskite nanoparticle using a fluidic channel including a first outer tube with both sides open, a second outer tube disposed on one side of the first outer tube, and a storage tube disposed on the other side of the first outer tube, the method comprising: a first step of forming the fluidic channel including the first outer tube, the second outer tube, and the storage tube capable of introducing flows of fluids; a second step of inducing formation of the perovskite nanoparticles by continuously preparing a mixed fluid with a laminar flow based on a flow rate by introducing a flow of a base fluid into the first outer tube, and introducing a flow of a dispersion fluid in the same direction as the flow of the base fluid into the second outer tube; and a third step of separating the perovskite nanoparticles from the mixed fluid stored in the storage tube, characterized in that the dispersion fluid contains a perovskite precursor, an organic ligand, and a polar aprotic solvent, wherein the base fluid contains a liquid crystal, and wherein the base fluid is at least one selected from a group consisting of a nematic liquid crystal, a smectic liquid crystal, a cholestexric liquid crystal, and a lyotropic liquid crystal. a first step of forming the fluidic channel including the first outer tube, the second outer tube, and the storage tube capable of introducing flows of fluids; a second step of inducing formation of the perovskite nanoparticles by continuously preparing a mixed fluid with a laminar flow based on a flow rate by introducing a flow of a base fluid into the first outer tube, and introducing a flow of a dispersion fluid in the same direction as the flow of the base fluid into the second outer tube; and a third step of separating the perovskite nanoparticles from the mixed fluid stored in the storage tube, characterized in that the dispersion fluid contains a perovskite precursor, an organic ligand, and a polar aprotic solvent, wherein the base fluid contains a liquid crystal, and wherein the base fluid is at least one selected from a group consisting of a nematic liquid crystal, a smectic liquid crystal, a cholestexric liquid crystal, and a lyotropic liquid crystal.
Interdental cleaner with a rod-shaped carrier consisting of plastic, which has a structuring with structural elements protruding radially from the carrier over at least one section of its axial length, wherein the carrier is twisted in at least one part of the section having the structuring together with the structuring about its longitudinal axis (L), characterized in that the structuring has radially protruding fingers and/or lips as well as radially protruding bristles and that the fingers and/or lips are formed integrally in one piece on a sleeve-like coating of the carrier , wherein said bristles are thin prefabricated sections of a monofilament or multifilament consisting of plastic, said bristles having a maximum diameter of 0,25 mm and are used as individual bristles and/or as a bundle of bristles.
A HA-paclitaxel conjugate for use in the loco-regional treatment of mesothelioma, wherein said hyaluronic acid-paclitaxel conjugate has an ester bond between the carboxyl of hyaluronic acid (HA) and a spacer, in turn bound by an ester bond through its carboxyl to the hydroxyl group to the carbon C2' of paclitaxel, wherein the spacer introduced is 4-bromobutyric acid, wherein the derivatization degree of paclitaxel in the HA-paclitaxel conjugate is within the range that varies from 15% to 21% weight/weight ( w/w) and wherein the HA used for the synthesis of the HA-paclitaxel conjugate is a fermentative HA with an average weight MW ranging from 140,000 to 250,000 Da.
A generator comprising: a generator frame; frame rings extending from an inside surface of the generator frame; stacked laminations forming a stator core disposed within the generator frame; a spring bar spanning a distance between at least two frame rings , a first spring bar end attached to a first frame ring and a second opposing spring bar end attached to a second frame ring ; at least one bracket attached to the spring bar ; and a first and a second keybar attached to the bracket , each keybar for engaging a corresponding groove within the stator core , wherein the first and second frame rings each define a notch therein for receiving a respective first and second clevis , the first and second clevis affixed to the respective first and second frame ring , the first and second spring bar ends affixed to the respective first and second clevis . a generator frame; frame rings extending from an inside surface of the generator frame; stacked laminations forming a stator core disposed within the generator frame; a spring bar spanning a distance between at least two frame rings , a first spring bar end attached to a first frame ring and a second opposing spring bar end attached to a second frame ring ; at least one bracket attached to the spring bar ; and a first and a second keybar attached to the bracket , each keybar for engaging a corresponding groove within the stator core , wherein the first and second frame rings each define a notch therein for receiving a respective first and second clevis , the first and second clevis affixed to the respective first and second frame ring , the first and second spring bar ends affixed to the respective first and second clevis .
A method for providing at least one image dataset , the method having the steps: a) processing at least one raw image dataset acquired from a patient by an imaging device of a mobile unit to a processed image dataset , b) generating a reduced image dataset by reducing the amount of data of the processed image dataset , and c) storing the at least one raw image dataset and/or the processed image dataset and/or reduced image dataset on a data server , the data server being part of the mobile unit and connected to a network characterized in that a remote expert receives access to the data server and wherein the data server uploads the raw image dataset and/or the processed image dataset to a central server in parallel to providing access to the remote expert , wherein access of the remote expert is given priority over the uploading to the central server . a) processing at least one raw image dataset acquired from a patient by an imaging device of a mobile unit to a processed image dataset , b) generating a reduced image dataset by reducing the amount of data of the processed image dataset , and c) storing the at least one raw image dataset and/or the processed image dataset and/or reduced image dataset on a data server , the data server being part of the mobile unit and connected to a network
A lens, which is a mirror-coated lens comprising: (i) a lens base material; (ii) on the front surface of the lens base material, a functional film (C1) containing a low refractive index layer, a high refractive index layer, and a metal layer; and (iii) on the back surface of the lens base material, a functional film (C2) containing a low refractive index layer and a high refractive index layer, and having - a luminous reflectance on the front surface side of 3-30%, - a luminous reflectance on the back surface side of 0.1-5.0% - a luminous transmittance of 55-80%. (i) a lens base material; (ii) on the front surface of the lens base material, a functional film (C1) containing a low refractive index layer, a high refractive index layer, and a metal layer; and (iii) on the back surface of the lens base material, a functional film (C2) containing a low refractive index layer and a high refractive index layer, and having - a luminous reflectance on the front surface side of 3-30%, - a luminous reflectance on the back surface side of 0.1-5.0% - a luminous transmittance of 55-80%. - a luminous reflectance on the front surface side of 3-30%, - a luminous reflectance on the back surface side of 0.1-5.0% - a luminous transmittance of 55-80%.
Method for determining the curve direction for a vehicle , the method comprising: - determining a lateral acceleration value (Q) of the vehicle ; - determining at least one of a yaw rate value (G) of the vehicle and a steering angle value (L) of the vehicle ; - determining a coefficient of friction (R); - determining the curve direction based on the determined values, wherein, for determining the curve direction, the yaw rate value (G) and lateral acceleration value (Q) are weighted more strongly in the event of a decreasing coefficient of friction (R). - determining a lateral acceleration value (Q) of the vehicle ; - determining at least one of a yaw rate value (G) of the vehicle and a steering angle value (L) of the vehicle ; - determining a coefficient of friction (R); - determining the curve direction based on the determined values,