mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for identifying security risks, comprising: using at least one server connected to a computer network to perform the following actions: retrieving a plurality of account credentials of a plurality of accounts from a storage of each member of a first group of machines in said computer network, said storage comprising at least one member of a group consisting of a registry, a Security Account Manager (SAM), a Local Security Authority Subsystem Service (LSASS), a memory, a persistent storage and a non-persistent storage; collecting a plurality of account access rights, each one of said plurality of account access rights grants to one of said plurality of accounts an access to at least one member of a second group machines in said network; and identifying which of said plurality of account credentials causes at least one security risk to at least one member of said second group by a correlation between at least one collected account credentials from said plurality of account credentials of a certain account of said plurality of accounts and at least one of said plurality of account access rights retrieved for said certain account; wherein said at least one retrieved account credential and said at least one account access right is of the same account from said plurality of accounts. using at least one server connected to a computer network to perform the following actions: retrieving a plurality of account credentials of a plurality of accounts from a storage of each member of a first group of machines in said computer network, said storage comprising at least one member of a group consisting of a registry, a Security Account Manager (SAM), a Local Security Authority Subsystem Service (LSASS), a memory, a persistent storage and a non-persistent storage; collecting a plurality of account access rights, each one of said plurality of account access rights grants to one of said plurality of accounts an access to at least one member of a second group machines in said network; and identifying which of said plurality of account credentials causes at least one security risk to at least one member of said second group by a correlation between at least one collected account credentials from said plurality of account credentials of a certain account of said plurality of accounts and at least one of said plurality of account access rights retrieved for said certain account; wherein said at least one retrieved account credential and said at least one account access right is of the same account from said plurality of accounts.
A gas-permeable film comprising: a gas-permeable section for gas permeation that is provided to a base plastic film of a prescribed thickness, wherein the gas-permeable section is a non-penetrating recession having a top opening and a bottom , and the recession is formed such that a thickness decreases gradually from the top opening towards the bottom with the bottom being thinnest, and wherein the bottom of the recession protrudes outwards from a surface of the base plastic film, and wherein the recession is formed as a slit having a U-shaped or V-shaped sectional shape, and wherein the recession is formed from a discontinuous slit group wherein a plurality of slits are arranged at a prescribed interval. a gas-permeable section for gas permeation that is provided to a base plastic film of a prescribed thickness, wherein the gas-permeable section is a non-penetrating recession having a top opening and a bottom , and the recession is formed such that a thickness decreases gradually from the top opening towards the bottom with the bottom being thinnest, and wherein the bottom of the recession protrudes outwards from a surface of the base plastic film, and wherein the recession is formed as a slit having a U-shaped or V-shaped sectional shape, and wherein the recession is formed from a discontinuous slit group wherein a plurality of slits are arranged at a prescribed interval.
A method of controlling channel access performed by an access point, AP, in a wireless local area network, WLAN, system, the method comprising: receiving, from a station, STA, a request frame comprising a target wake time, TWT, element including a bit value indicating whether protection of a resource for the TWT is requested to the AP; determining whether the resource for the TWT is to be protected in response to the request for the protecting the resource; and transmitting, to the STA, a response frame comprising a TWT element including a bit value indicating whether the resource for the TWT is to be protected based on the determination, , characterised in that when the bit value of the response frame is a first value indicating the resource is to be protected, the AP allocates a restricted access window, RAW, for protecting a TWT service period of the STA, and wherein when the bit value of the response frame is a second value, the bit value of the response frame indicates the resource may not be protected. receiving, from a station, STA, a request frame comprising a target wake time, TWT, element including a bit value indicating whether protection of a resource for the TWT is requested to the AP; determining whether the resource for the TWT is to be protected in response to the request for the protecting the resource; and transmitting, to the STA, a response frame comprising a TWT element including a bit value indicating whether the resource for the TWT is to be protected based on the determination, , characterised in that when the bit value of the response frame is a first value indicating the resource is to be protected, the AP allocates a restricted access window, RAW, for protecting a TWT service period of the STA, and wherein when the bit value of the response frame is a second value, the bit value of the response frame indicates the resource may not be protected.
A method of controlling the conditions of air in an interior of a greenhouse enclosure for growing plants , comprising: collecting air from a lower part of the interior , below the average foliage level of the plants , dehumidifying said collected air , releasing said dehumidified air in an upper part of the interior , and circulating said dehumidified air within the greenhouse enclosure for better distributing said released air in the vicinity of the foliage of the plants , wherein while said dehumidified air passes at the foliage, said dehumidified air collects water vapor and is cooled off by supplying sensible heat, thereby controlling the conditions of the air in the interior of the greenhouse enclosure . collecting air from a lower part of the interior , below the average foliage level of the plants , dehumidifying said collected air , releasing said dehumidified air in an upper part of the interior , and circulating said dehumidified air within the greenhouse enclosure for better distributing said released air in the vicinity of the foliage of the plants , wherein while said dehumidified air passes at the foliage, said dehumidified air collects water vapor and is cooled off by supplying sensible heat, thereby controlling the conditions of the air in the interior of the greenhouse enclosure .
A method of restricting external Input/Output functionality of a computing system, to and from the Internet, wherein a first device is plugged into an existing interface port of the computing system, installed first device disables all external Input/Output circuitry of the computing system rerouting all external Input/Output functionality of the computing system through the installed first device , all Input/Output of the installed first device are maintained in a disabled state until specifically enabled by a local user command issued from a second user controlled device after a valid user request of Internet access is received, characterised in that an air gap is provided within the installed first device providing physical and logical isolation between electronic components of the computing system and the internet to be connected to the computing system, wherein a transport over the air gap is limited to localized free space optical communication in a visible or near visible range.
Shaft of a rotor of an electric machine movable in rotation around a longitudinal axis (X) comprising a hollow body made of steel defining an interior cavity for the passage of a cooling fluid through the interior of the shaft, this hollow body being formed by at least two body parts assembled longitudinally along said axis (X), characterized in that at least one first of the two parts of body comprises at least one first cooling fin forged on the surface of the cavity .
A combination of a conduit and a temperature sensor, the combination comprising: (a) a conduit extending along a conduit axis between a first end and a second end and comprising a sidewall with an inner surface and an opposed outer surface spaced apart from the inner surface in a radial direction; (b) at least a first cavity disposed in the sidewall , the first cavity comprising a first base surface portion and an opposing first cover surface portion disposed radially between the first base surface portion and the first inner surface so that a first portion of the sidewall is provided radially between the first cover surface portion and the inner surface; (c) a first aperture in the inner surface , the first aperture is in communication with the first cavity and is axially spaced apart from the first cover surface portion ; and (d) a first temperature sensor having a first temperature transducer portion insertable through the first aperture and positioned within the first cavity, the transducer portion being disposed radially between the first base surface portion and the first cover surface portion and being axially spaced apart from the first aperture . (a) a conduit extending along a conduit axis between a first end and a second end and comprising a sidewall with an inner surface and an opposed outer surface spaced apart from the inner surface in a radial direction; (b) at least a first cavity disposed in the sidewall , the first cavity comprising a first base surface portion and an opposing first cover surface portion disposed radially between the first base surface portion and the first inner surface so that a first portion of the sidewall is provided radially between the first cover surface portion and the inner surface; (c) a first aperture in the inner surface , the first aperture is in communication with the first cavity and is axially spaced apart from the first cover surface portion ; and (d) a first temperature sensor having a first temperature transducer portion insertable through the first aperture and positioned within the first cavity, the transducer portion being disposed radially between the first base surface portion and the first cover surface portion and being axially spaced apart from the first aperture .
A method for sulphidation of a hydrocarbon processing catalyst, comprising: - at least one first step of depositing, on the surface of the catalyst, one or more sulphidation aid(s) of formula (I) : wherein: R 1 represents a hydrogen atom or a linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms; R 2 represents a divalent linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms, and which may optionally contain one or more heteroatom(s) selected from oxygen and nitrogen atoms; R 3 represents a linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms; and - at least one second step of contacting the catalyst with a sulphur gas mixture containing hydrogen and a sulphide compound different from the sulphidation aid of formula (I), at a temperature comprised within the range of 150 to 500°C. - at least one first step of depositing, on the surface of the catalyst, one or more sulphidation aid(s) of formula (I) : wherein: R 1 represents a hydrogen atom or a linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms; R 2 represents a divalent linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms, and which may optionally contain one or more heteroatom(s) selected from oxygen and nitrogen atoms; R 3 represents a linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms; and R 1 represents a hydrogen atom or a linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms; R 2 represents a divalent linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms, and which may optionally contain one or more heteroatom(s) selected from oxygen and nitrogen atoms; R 3 represents a linear or branched, saturated or unsaturated hydrocarbon group, comprising from 1 to 30 carbon atoms; and - at least one second step of contacting the catalyst with a sulphur gas mixture containing hydrogen and a sulphide compound different from the sulphidation aid of formula (I), at a temperature comprised within the range of 150 to 500°C.
An analyzer for analyzing a composition of a sample , comprising: an x-ray illuminator arranged to illuminate the sample with x-rays ; an x-ray spectrometer adapted to produce x-ray spectral data representative of fluorescence radiation emitted from the sample in response to the illuminating x-rays ; an optical illuminator arranged to illuminate the sample with light ; the analyzer being characterized by : a Raman spectrometer adapted to produce Raman spectral data that includes Stokes spectral data and anti-Stokes spectral data representative of Raman radiation emitted from the sample in response to the light ; and a processor adapted to receive the x-ray spectral data and Raman spectral data and to determine if the Stokes spectral data is obscured by an interfering optical fluorescence signal and, when the Stokes spectral data is determined to be obscured, uses the anti-Stokes spectral data and not the Stokes spectral data, to identify the molecule and provide an analysis of a compound in the sample based on both. an x-ray illuminator arranged to illuminate the sample with x-rays ; an x-ray spectrometer adapted to produce x-ray spectral data representative of fluorescence radiation emitted from the sample in response to the illuminating x-rays ; an optical illuminator arranged to illuminate the sample with light ; the analyzer being characterized by : a Raman spectrometer adapted to produce Raman spectral data that includes Stokes spectral data and anti-Stokes spectral data representative of Raman radiation emitted from the sample in response to the light ; and a processor adapted to receive the x-ray spectral data and Raman spectral data and to determine if the Stokes spectral data is obscured by an interfering optical fluorescence signal and, when the Stokes spectral data is determined to be obscured, uses the anti-Stokes spectral data and not the Stokes spectral data, to identify the molecule and provide an analysis of a compound in the sample based on both.
An evacuation station (120; 205) configured to hold a bag comprising: a control system comprising one or more processing devices programmed to control evacuation of a debris bin (115; 210) of a mobile robot (100; 200); a base to receive the mobile robot, the base comprising an intake port to align to an exhaust port of the debris bin; a canister to hold a bag to store debris from the debris bin; one or more conduits (230a; 230b; 230c) extending from the intake port to the bag, through which debris is transported between the intake port and the bag, wherein the cannister further comprises: a top movable between an open position and a closed position; a motor that is responsive to commands from the control system to remove air from the canister and thereby generate negative air pressure in the canister to evacuate the debris bin by suctioning the debris from the debris bin, characterized in that : the cannister further comprises slots that align the bag with a bag interface end of the one or more conduits, and that the motor is positioned below the cannister. a control system comprising one or more processing devices programmed to control evacuation of a debris bin (115; 210) of a mobile robot (100; 200); a base to receive the mobile robot, the base comprising an intake port to align to an exhaust port of the debris bin; a canister to hold a bag to store debris from the debris bin; one or more conduits (230a; 230b; 230c) extending from the intake port to the bag, through which debris is transported between the intake port and the bag, wherein the cannister further comprises: a top movable between an open position and a closed position; a motor that is responsive to commands from the control system to remove air from the canister and thereby generate negative air pressure in the canister to evacuate the debris bin by suctioning the debris from the debris bin, characterized in that : the cannister further comprises slots that align the bag with a bag interface end of the one or more conduits, and that the motor is positioned below the cannister. a top movable between an open position and a closed position; a motor that is responsive to commands from the control system to remove air from the canister and thereby generate negative air pressure in the canister to evacuate the debris bin by suctioning the debris from the debris bin, characterized in that : the cannister further comprises slots that align the bag with a bag interface end of the one or more conduits, and that the motor is positioned below the cannister. the cannister further comprises slots that align the bag with a bag interface end of the one or more conduits, and that the motor is positioned below the cannister.
An aqueous binder composition comprising (i) one or more diprimary diamine or poly(primary amine), and (ii) a 5-carbon reducing sugar that is an aldopentose, wherein the number of equivalents of primary amine relative to the number of equivalents of carbonyl groups in the 5-carbon reducing sugar ranges 0.2:1 to 2:1, and wherein, when (i) is a poly(primary amine), it is a polyamine having a weight average molecular weight as determined by size exclusion gel chromatography (SEC) of 5,000 or less and 10 wt.% or more of primary amine groups, based on the total weight of the polyamine.
A training unit for physical training or rehabilitation of a person comprising - a motor for pulling a cable such that a body part of said person (S) experiencing a pull when said body part being attached to said cable or such that gravity acting on said body part being perceived as reduced when said body part being attached to said cable, - a first sensor (b) for measuring a first kinematic quantity of said training unit, - a second sensor for measuring a second kinematic quantity of said training unit, - a controller (a) including a memory for generating and providing a driving signal to said motor such that said training unit being operable in a state space having a set of states including at least three states, each respective state defining a first target kinematic quantity of said training unit, and a second target kinematic quantity of said training unit, characterized in that said driving signal being a function of a current state of said training unit, said first kinematic quantity, said second kinematic quantity, said first target kinematic quantity, and said second target kinematic quantity. - a motor for pulling a cable such that a body part of said person (S) experiencing a pull when said body part being attached to said cable or such that gravity acting on said body part being perceived as reduced when said body part being attached to said cable, - a first sensor (b) for measuring a first kinematic quantity of said training unit, - a second sensor for measuring a second kinematic quantity of said training unit, - a controller (a) including a memory for generating and providing a driving signal to said motor such that said training unit being operable in a state space having a set of states including at least three states, each respective state defining a first target kinematic quantity of said training unit, and a second target kinematic quantity of said training unit, characterized in that said driving signal being a function of a current state of said training unit, said first kinematic quantity, said second kinematic quantity, said first target kinematic quantity, and said second target kinematic quantity. each respective state defining a first target kinematic quantity of said training unit, and a second target kinematic quantity of said training unit, characterized in that said driving signal being a function of a current state of said training unit, said first kinematic quantity, said second kinematic quantity, said first target kinematic quantity, and said second target kinematic quantity.
A recording apparatus comprising: a carriage including a recording head configured to eject liquid, wherein the carriage is configured to reciprocate in a first direction (L) along a scanning direction (Y) and in a second direction (R) opposite to the first direction while the recording head ejects liquid; a tank configured to contain liquid to be supplied to the recording head; a flow passage configured to supply liquid from the tank to the recording head, wherein the flow passage includes (i) a fixed flow passage which is fixed to the inside of the recording apparatus by a fixed portion and connected to the tank and configured not to follow a movement of the carriage, (ii) a first flow passage branched off from the fixed flow passage and connected to the recording head in the first direction, wherein the first flow passage is configured to follow the movement of the carriage, and (iii) a second flow passage branched off from the fixed flow passage and connected to the recording head in the second direction, wherein the second flow passage is configured to follow the movement of the carriage; and a valve provided in one of the first flow passage and the second flow passage, wherein the valve is configured to limit a flow of liquid in one direction, namely from the tank to the recording head, and is configured to allow liquid to flow in the reverse direction, namely from the recording head to the tank. a carriage including a recording head configured to eject liquid, wherein the carriage is configured to reciprocate in a first direction (L) along a scanning direction (Y) and in a second direction (R) opposite to the first direction while the recording head ejects liquid; a tank configured to contain liquid to be supplied to the recording head; a flow passage configured to supply liquid from the tank to the recording head, wherein the flow passage includes (i) a fixed flow passage which is fixed to the inside of the recording apparatus by a fixed portion and connected to the tank and configured not to follow a movement of the carriage, (ii) a first flow passage branched off from the fixed flow passage and connected to the recording head in the first direction, wherein the first flow passage is configured to follow the movement of the carriage, and (iii) a second flow passage branched off from the fixed flow passage and connected to the recording head in the second direction, wherein the second flow passage is configured to follow the movement of the carriage; and a valve provided in one of the first flow passage and the second flow passage, wherein the valve is configured to limit a flow of liquid in one direction, namely from the tank to the recording head, and is configured to allow liquid to flow in the reverse direction, namely from the recording head to the tank.