mhurhangee/patent-ind-claim-en huggingface dataset:
System for the steam-peeling of products having a skin, comprising a pressure vessel rotatable about a rotational axis in a rotational direction and having a wall which surrounds a pressure space of the pressure vessel , wherein in the wall is provided a through opening for feeding products into the pressure space via the through opening and for evacuating products from the pressure space via the through opening , the pressure vessel further comprising a closure member for closing off the through opening , the system further comprising feed means for feeding steam to the pressure space , evacuation means for evacuating steam and condensate from the pressure space , wherein the pressure vessel , on the inner side of the wall , is provided with at least one agitation member for the radially inward movement of products during rotation of the pressure vessel about the rotational axis , characterized in that the at least one agitation member comprises at least one agitation member of a first type , which is connected to the wall and comprises an agitation body that, viewed in a cross section perpendicular to the rotational axis , has a convex shape, and that, together with the wall of the pressure vessel , surrounds a cavity , wherein on the front side of the agitation member of the first type , in the agitation body and/or between the agitation body and the wall , at least one flow opening is provided, and wherein the agitation body , on the rear side of the agitation member , connects to the wall in a liquid-tight manner, so that condensate such as is formed within the pressure vessel during use can flow via the at least one flow opening into the cavity and cannot depart the cavity via the rear side of the agitation member , and wherein in that part of the wall which jointly surrounds the cavity is provided a further flow opening , which communicates with a collecting tank provided on the outer side of the pressure vessel , in order to further allow condensate to flow from the cavity via the further flow opening to the collecting tank .
A therapeutic agent that inhibits a platelet derived growth factor receptor beta (PDGFRβ) for use in a method of treating or preventing tumor metastasis, in a subject having a gain of function p53 mutation that increases its oncogenic properties relative to wild type, wherein the tumor is a pancreatic cancer tumor, a colorectal cancer tumor, or an ovarian cancer tumor.
A vehicle comprising: a floor panel that constitutes a part of a vehicle body and extends in a front to rear direction of a vehicle and a width direction of the vehicle; a rear seat that is disposed on a vehicle upper side of the floor panel such that a gap is formed with respect to the floor panel; and an autonomous driving device module that is equipped with a plurality of devices and is disposed on the vehicle upper side of the floor panel and a vehicle lower side of the rear seat, wherein the plurality of devices includes an autonomous driving control unit , an auxiliary power supply unit , and a power converting unit , the vehicle characterized in that : the autonomous driving control unit is configured to control a movement of the vehicle in an autonomous driving mode, the auxiliary power supply unit is provided separately from a main power supply unit provided in the vehicle and is configured to supply power to the autonomous driving control unit, and the power converting unit is configured to convert power supplied from the auxiliary power supply unit and to supply the power to the autonomous driving control unit. a floor panel that constitutes a part of a vehicle body and extends in a front to rear direction of a vehicle and a width direction of the vehicle; a rear seat that is disposed on a vehicle upper side of the floor panel such that a gap is formed with respect to the floor panel; and an autonomous driving device module that is equipped with a plurality of devices and is disposed on the vehicle upper side of the floor panel and a vehicle lower side of the rear seat, wherein the plurality of devices includes an autonomous driving control unit , an auxiliary power supply unit , and a power converting unit , an autonomous driving control unit , an auxiliary power supply unit , and a power converting unit , the autonomous driving control unit is configured to control a movement of the vehicle in an autonomous driving mode, the auxiliary power supply unit is provided separately from a main power supply unit provided in the vehicle and is configured to supply power to the autonomous driving control unit, and the power converting unit is configured to convert power supplied from the auxiliary power supply unit and to supply the power to the autonomous driving control unit.
A cleaner head for a vacuum cleaning appliance, the cleaner head comprising: a main body supporting an agitator , the agitator comprising a rotatable cylindrical body that bears an elongate agitator formation for engaging a surface as the cylindrical body rotates, wherein the elongate agitator formation includes: a first agitator row that extends around the cylindrical body in a direction from a respective first edge (L) of the cylindrical body towards a respective second edge (R) in a first helical direction, the first agitator row extending from a position proximate the first edge (L) towards or beyond a centre (C) of the cylindrical body, and a second agitator row that extends around the cylindrical body in a direction from the second edge (R) of the cylindrical body towards the first edge (L) in a second helical direction that is counter to the first helical direction, the second agitator row extending from a position proximate the second edge (R) towards or beyond the centre (C) of the cylindrical body, the first and second agitator rows extend axially along the cylindrical body such that they do not overlap with one another, wherein the first agitator row comprises agitators of a first material and wherein the second agitator row comprises agitators of a second material that is different to the first material. a main body supporting an agitator , the agitator comprising a rotatable cylindrical body that bears an elongate agitator formation for engaging a surface as the cylindrical body rotates, wherein the elongate agitator formation includes: a first agitator row that extends around the cylindrical body in a direction from a respective first edge (L) of the cylindrical body towards a respective second edge (R) in a first helical direction, the first agitator row extending from a position proximate the first edge (L) towards or beyond a centre (C) of the cylindrical body, and a second agitator row that extends around the cylindrical body in a direction from the second edge (R) of the cylindrical body towards the first edge (L) in a second helical direction that is counter to the first helical direction, the second agitator row extending from a position proximate the second edge (R) towards or beyond the centre (C) of the cylindrical body, the first and second agitator rows extend axially along the cylindrical body such that they do not overlap with one another, wherein the first agitator row comprises agitators of a first material and wherein the second agitator row comprises agitators of a second material that is different to the first material.
An implantable medical device (IMD) configured to be implanted within a patient, the IMD comprising: a housing configured for trans-catheter deployment, the housing having a portion that comprises a magnetically permeable material with a relative permeability (μ r ) of greater than 10; a receiving coil disposed around at least a portion of the housing portion, wherein the magnetically permeable material of the housing portion is configured to operate as a flux concentrator for concentrating non-radiative near-field energy through the receiving coil ; operational circuitry disposed within the housing ; a rechargeable power source disposed within the housing and configured to power the operational circuitry ; and charging circuitry operatively coupled with the receiving coil and the rechargeable power source , the charging circuitry configured to use the non-radiative near-field energy received via the receiving coil to charge the rechargeable power source . a housing configured for trans-catheter deployment, the housing having a portion that comprises a magnetically permeable material with a relative permeability (μ r ) of greater than 10; a receiving coil disposed around at least a portion of the housing portion, wherein the magnetically permeable material of the housing portion is configured to operate as a flux concentrator for concentrating non-radiative near-field energy through the receiving coil ; operational circuitry disposed within the housing ; a rechargeable power source disposed within the housing and configured to power the operational circuitry ; and charging circuitry operatively coupled with the receiving coil and the rechargeable power source , the charging circuitry configured to use the non-radiative near-field energy received via the receiving coil to charge the rechargeable power source .
A bistable liquid crystal film, comprising: at least one first transparent flexible film coated with conductive material; and, at least one layer of liquid crystal dispersions comprising metal-organic mesogens, said layer characterized by at least two modes (i) scattering mode-A; and (ii) transparent mode-B; disposed between said flexible transparent conductive film and at least one second transparent flexible conductive film; characterized in that said liquid crystal film does not comprise spacers. at least one first transparent flexible film coated with conductive material; and, at least one layer of liquid crystal dispersions comprising metal-organic mesogens, said layer characterized by at least two modes (i) scattering mode-A; and (ii) transparent mode-B; disposed between said flexible transparent conductive film and at least one second transparent flexible conductive film;
An unmanned aerial vehicle (UAV) housing apparatus, comprising: a mounting component configured to attach to a vehicle ; a landing connection component configured to form a connection with the UAV that prevents detachment of the UAV and the UAV housing apparatus; and a cover configured to at least partially enclose the UAV when the UAV is connected to the landing connection component, characterised in that the cover is coupled to an actuator configured to drive the cover between an open position and a closed position; the cover is capable of functioning as a communication device when the cover is in an open position. a mounting component configured to attach to a vehicle ; a landing connection component configured to form a connection with the UAV that prevents detachment of the UAV and the UAV housing apparatus; and a cover configured to at least partially enclose the UAV when the UAV is connected to the landing connection component, characterised in that the cover is coupled to an actuator configured to drive the cover between an open position and a closed position; the cover is capable of functioning as a communication device when the cover is in an open position.
A semiconductor crystal comprising a clathrate compound represented by the following formula (I), the semiconductor crystal having one end portion and the other end portion, wherein the one and the other end portions differ in concentration of at least one element in the formula (I): A x D y E 46-y (I) wherein A represents at least one element selected from the group consisting of Ba, Na, Sr, and K, D represents at least one element selected from the group consisting of B, Ga, and In, E represents at least one element selected from the group consisting of Si, Ge, and Sn, x is 7 or more and 8 or less, and y is 14 or more and 20 or less.
An apparatus for spraying concrete, with the following features: a) a conveying line which is configured and designed to receive concrete from one inlet end and to direct it to its other outlet end , b) a lance which is configured and designed to deliver the concrete by spraying; c) the lance has an inlet end for the concrete, which is supplied by the conveying line , and a water supply adjacent to this inlet end, wherein the water supply is configured and designed to introduce water into the lance such that the concrete mixes with the water in the lance and the flowability of the concrete within the lance is increased; d) in the direction of flow of the concrete at a distance from the water supply , a binding agent supply is connected to the lance , wherein the binding agent supply is configured and designed to introduce a binding agent into the concrete enriched with water; e) at a distance from the binding agent supply , an air supply is connected to the lance , which is configured and designed to form an annular air flow which determines the size of a spray cone of the concrete emerging from the lance ; f) at an outlet end of the lance , a nozzle ring is arranged which is configured and designed to form the annular air flow surrounding the material flow (M) of the emerging concrete, wherein the air supply is configured and designed to introduce air into an annular space between the nozzle ring and the lance , characterised in that in the annular space , the air is deflected in an axial direction such that at the outlet end , a purely axially oriented air flow is generated, which is guided parallel to the material flow (M). a) a conveying line which is configured and designed to receive concrete from one inlet end and to direct it to its other outlet end , b) a lance which is configured and designed to deliver the concrete by spraying; c) the lance has an inlet end for the concrete, which is supplied by the conveying line , and a water supply adjacent to this inlet end, wherein the water supply is configured and designed to introduce water into the lance such that the concrete mixes with the water in the lance and the flowability of the concrete within the lance is increased; d) in the direction of flow of the concrete at a distance from the water supply , a binding agent supply is connected to the lance , wherein the binding agent supply is configured and designed to introduce a binding agent into the concrete enriched with water; e) at a distance from the binding agent supply , an air supply is connected to the lance , which is configured and designed to form an annular air flow which determines the size of a spray cone of the concrete emerging from the lance ; f) at an outlet end of the lance , a nozzle ring is arranged which is configured and designed to form the annular air flow surrounding the material flow (M) of the emerging concrete, wherein the air supply is configured and designed to introduce air into an annular space between the nozzle ring and the lance , characterised in that
A computer-implemented method , comprising: generating a dataset in a database using standardized paleo-fossil and sedimentary information; executing analytical operations on the generated dataset; determining a reservoir zone thickness of a stratigraphic zone based on a result of the analytical operations, wherein the analytical operations determine a starting occurrence and an ending occurrence of one or more particular paleo-fossils, and wherein the starting occurrence and ending occurrence is used to define boundaries of the stratigraphic zone and to determine the reservoir zone thickness; performing a fault and fracture analysis based on a result of the analytical operations; controlling , in real-time, at least one action of a hydrocarbon recovery drill, wherein control of the at least one action is based upon geological datum and the determined reservoir zone thickness or predictions based on the result of the fault and fracture analysis. generating a dataset in a database using standardized paleo-fossil and sedimentary information; executing analytical operations on the generated dataset; determining a reservoir zone thickness of a stratigraphic zone based on a result of the analytical operations, wherein the analytical operations determine a starting occurrence and an ending occurrence of one or more particular paleo-fossils, and wherein the starting occurrence and ending occurrence is used to define boundaries of the stratigraphic zone and to determine the reservoir zone thickness; performing a fault and fracture analysis based on a result of the analytical operations; controlling , in real-time, at least one action of a hydrocarbon recovery drill, wherein control of the at least one action is based upon geological datum and the determined reservoir zone thickness or predictions based on the result of the fault and fracture analysis.
A method of monitoring an additive powder bed process in which one or more energy beams are used to selectively fuse a powder to form a work piece , in the presence of one or more plumes generated by interaction of the one or more energy beams with the powder, the method comprising using at least one sensor to generate at least one signal representative of a trajectory of one or more of the plumes and using an illumination source to radiate light that is then scattered or reflected from at least one of the plumes to the at least one sensor , wherein a plume map is created describing the location and dimensions of each plume in 3D space and the propagation of the plumes over time.
A cartridge apparatus, comprising: a cartridge defining a channel and an opening at an end portion thereof, the channel configured to hold a plurality of drug dosage forms ; a plurality of drug dosage forms , disposed within the channel of the cartridge ; a pusher , extending laterally with respect to a longitudinal axis of the channel from outside of the channel to within the channel, such that in response to pressing on the pusher outside the channel, the pusher exerts pressure, within the channel, on the plurality of drug dosage forms to urge a first drug dosage form of the plurality of drug dosage forms along the cartridge channel towards the opening, for delivery into a drug dosage form delivery device; and a spring coupled to the pusher , the spring and the pusher being disposed within the cartridge apparatus , the cartridge apparatus adapted to be coupled to the drug dosage form delivery device. a cartridge defining a channel and an opening at an end portion thereof, the channel configured to hold a plurality of drug dosage forms ; a plurality of drug dosage forms , disposed within the channel of the cartridge ; a pusher , extending laterally with respect to a longitudinal axis of the channel from outside of the channel to within the channel, such that in response to pressing on the pusher outside the channel, the pusher exerts pressure, within the channel, on the plurality of drug dosage forms to urge a first drug dosage form of the plurality of drug dosage forms along the cartridge channel towards the opening, for delivery into a drug dosage form delivery device; and a spring coupled to the pusher , the spring and the pusher being disposed within the cartridge apparatus , the cartridge apparatus adapted to be coupled to the drug dosage form delivery device.
A method implemented using one or more processors, comprising: receiving a free-form natural language text segment from a first user via a client device operated by the first user, wherein the free-form natural language text segment comprises a request pertaining to a second user; identifying at least first and second data sources that are accessible by an automated assistant to retrieve data associated with the second user, wherein the first and second data sources include sufficient data to respond to the request; determining a first privacy score assigned to the first data source and a second privacy score assigned to the second data source; determining an aggregate privacy score associated with responding to the request based on the first privacy score and the second privacy score; and causing the client device operated by the first user to respond to the request in response to a determination that the aggregate privacy score associated with responding to the request satisfies a privacy criterion established for the second user with respect to the first user. receiving a free-form natural language text segment from a first user via a client device operated by the first user, wherein the free-form natural language text segment comprises a request pertaining to a second user; identifying at least first and second data sources that are accessible by an automated assistant to retrieve data associated with the second user, wherein the first and second data sources include sufficient data to respond to the request; determining a first privacy score assigned to the first data source and a second privacy score assigned to the second data source; determining an aggregate privacy score associated with responding to the request based on the first privacy score and the second privacy score; and causing the client device operated by the first user to respond to the request in response to a determination that the aggregate privacy score associated with responding to the request satisfies a privacy criterion established for the second user with respect to the first user.