mhurhangee/patent-ind-claim-en huggingface dataset:
A method for synchronizing a wireless sensor , comprising: receiving a first command at the wireless sensor ; responding to the first command with a first reply; noting a first timestamp value (t 1 ) indicating when the first reply is sent; characterised by : receiving a second command at the wireless sensor that contains a second timestamp value (t 4 ) indicating when the first reply was received and a third timestamp value (t 5 ) indicating when the second command was sent to the wireless sensor ; noting a fourth timestamp value (t 8 ) indicating when the second command was received by the wireless sensor ; and determining an offset at the wireless sensor using the first (t 1 ), second (t 4 ), third (t 5 ), and fourth (t 8 ) timestamp values. receiving a first command at the wireless sensor ; responding to the first command with a first reply; noting a first timestamp value (t 1 ) indicating when the first reply is sent; characterised by : receiving a second command at the wireless sensor that contains a second timestamp value (t 4 ) indicating when the first reply was received and a third timestamp value (t 5 ) indicating when the second command was sent to the wireless sensor ; noting a fourth timestamp value (t 8 ) indicating when the second command was received by the wireless sensor ; and determining an offset at the wireless sensor using the first (t 1 ), second (t 4 ), third (t 5 ), and fourth (t 8 ) timestamp values. receiving a second command at the wireless sensor that contains a second timestamp value (t 4 ) indicating when the first reply was received and a third timestamp value (t 5 ) indicating when the second command was sent to the wireless sensor ; noting a fourth timestamp value (t 8 ) indicating when the second command was received by the wireless sensor ; and determining an offset at the wireless sensor using the first (t 1 ), second (t 4 ), third (t 5 ), and fourth (t 8 ) timestamp values.
A composition comprising xanthohumol and a vinylpyrrolidone-vinyl acetate copolymer; wherein said composition is in the form of an hot-melt extrudate.
A flotation cell for treating particles suspended in slurry and for separating the slurry into an underflow and an overflow , the flotation cell comprising a flotation tank comprising a centre , a perimeter , a substantially horizontal level bottom , and a side wall ; a launder and a launder lip surrounding the perimeter of the tank ; and a bottom structure arranged on the bottom , and having a shape that allows particles suspended in slurry to be mixed in a mixing zone (A) over the bottom structure, and to settle down in a settling zone (B) surrounding the bottom structure, wherein the flotation tank further comprises blast tubes for introducing slurry infeed into the tank, a blast tube comprising an inlet nozzle for feeding slurry infeed into the blast tube; an elongated chamber arranged to receive under pressure the slurry infeed; characterized in that the blast tube further comprises an inlet for pressurized gas, the slurry infeed subjected to the pressurized gas as it is discharged from the inlet nozzle; an outlet nozzle configured to restrict flow of slurry infeed from the outlet nozzle, and to maintain slurry infeed in the elongated chamber under pressure; and in that the blast tubes are disposed at a position relative to the bottom structure so as to induce mixing at the mixing zone, and wherein the outlet nozzle is configured to produce a supersonic shockwave into the slurry infeed , the supersonic shockwave inducing formation of flotation gas bubble - particle agglomerates. a flotation tank comprising a centre , a perimeter , a substantially horizontal level bottom , and a side wall ; a launder and a launder lip surrounding the perimeter of the tank ; and a bottom structure arranged on the bottom , and having a shape that allows particles suspended in slurry to be mixed in a mixing zone (A) over the bottom structure, and to settle down in a settling zone (B) surrounding the bottom structure, wherein the flotation tank further comprises blast tubes for introducing slurry infeed into the tank, a blast tube comprising an inlet nozzle for feeding slurry infeed into the blast tube; an elongated chamber arranged to receive under pressure the slurry infeed; characterized in that the blast tube further comprises an inlet for pressurized gas, the slurry infeed subjected to the pressurized gas as it is discharged from the inlet nozzle; an outlet nozzle configured to restrict flow of slurry infeed from the outlet nozzle, and to maintain slurry infeed in the elongated chamber under pressure; and in that the blast tubes are disposed at a position relative to the bottom structure so as to induce mixing at the mixing zone, and wherein the outlet nozzle is configured to produce a supersonic shockwave into the slurry infeed , the supersonic shockwave inducing formation of flotation gas bubble - particle agglomerates.
A method performed by a wireless network access node for managing/handling access priority associated with a wireless device , which wireless device is requesting access to the wireless network, the method comprising receiving from a mobility management node a message comprising Quality of Service, QoS, information associated with the wireless device ; determining access priority related information associated with the wireless device based on the received QoS information; and transmitting the access priority related information associated with the wireless device to the wireless device , and characterized in that the access priority related information associated with the wireless device is arranged to be used in a subsequent access control mechanism, such as access class barring, resume request, or connection request, overriding as such the information stored on a Universal Subscriber Identity Module, USIM, the QoS information is authorized by a core network, and that the subsequent access control mechanism is a subsequent Third Generation Partnership Project, 3GPP, access control mechanism. receiving from a mobility management node a message comprising Quality of Service, QoS, information associated with the wireless device ; determining access priority related information associated with the wireless device based on the received QoS information; and transmitting the access priority related information associated with the wireless device to the wireless device , and characterized in that the access priority related information associated with the wireless device is arranged to be used in a subsequent access control mechanism, such as access class barring, resume request, or connection request, overriding as such the information stored on a Universal Subscriber Identity Module, USIM, the QoS information is authorized by a core network, and that the subsequent access control mechanism is a subsequent Third Generation Partnership Project, 3GPP, access control mechanism.
Emergency actuating device , comprising: - a support base ; - a manual actuation element associated with the support base and adapted to assume, relative to the support base , a first and a second configuration, respectively of rest and actuation; - a protective shell associated with the support base and adapted to assume, relative to the support base, a first and a second configuration, i.e. respectively a rest or closed configuration in which said shell isolates at least partially the actuation element from the outer environment when the actuation element is in its rest configuration, and makes it impossible to reach the actuation element with a hand, and an operational or open configuration, in which the actuation element can be reached with a hand in order to be brought from the rest configuration to the actuation configuration and vice versa; characterized in that it further comprises: - an electromagnetically driven locking mechanism adapted to lock the actuation element in its rest configuration, thus preventing said actuation element from assuming the actuation configuration; - an opening sensor adapted to generate an electric signal indicative of the open configuration of the protective shell , said signal being processable by an electronic control unit for controlling locking and/or unlocking of the locking mechanism . - a support base ; - a manual actuation element associated with the support base and adapted to assume, relative to the support base , a first and a second configuration, respectively of rest and actuation; - a protective shell associated with the support base and adapted to assume, relative to the support base, a first and a second configuration, i.e. respectively a rest or closed configuration in which said shell isolates at least partially the actuation element from the outer environment when the actuation element is in its rest configuration, and makes it impossible to reach the actuation element with a hand, and an operational or open configuration, in which the actuation element can be reached with a hand in order to be brought from the rest configuration to the actuation configuration and vice versa; - an electromagnetically driven locking mechanism adapted to lock the actuation element in its rest configuration, thus preventing said actuation element from assuming the actuation configuration; - an opening sensor adapted to generate an electric signal indicative of the open configuration of the protective shell , said signal being processable by an electronic control unit for controlling locking and/or unlocking of the locking mechanism .
A wind turbine comprising a tower , a nacelle mounted on the tower via a yaw system, a hub mounted rotatably on the nacelle , the hub comprising a blade carrying structure , and one or more wind turbine blades connected to the blade carrying structure , wherein each of the wind turbine blades defines an aerodynamic profile having a chord which varies along a length of the wind turbine blade between an inner tip end and an outer tip end , and characterised in that each of the wind turbine blades is connected to the blade carrying structure at a single hinge position of the wind turbine blade via a hinge , each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure , via the hinge , between a minimum pivot angle and a maximum pivot angle, the hinge position being arranged at a distance from the inner tip end and at a distance from the outer tip end , and wherein the chord at the hinge position is larger than or equal to the chord at the inner tip end and larger than the chord at the outer tip end .
A human and/or non-human cargo attachment device for use with a rotorcraft , comprising: a mounting interface with a mounting base carrier that is removably attachable to an associated attachment for attachment to a rotorcraft rope or cable ; a connecting member that is spaced apart from the mounting base carrier ; and a plurality of lateral attachments which are connected to the mounting base carrier and the connecting member ; wherein the plurality of lateral attachments , the mounting base carrier , and the connecting member form a device body with a height direction ; wherein the connecting member is spaced apart from the mounting base carrier in the height direction of the device body ; wherein each lateral attachment of the plurality of lateral attachments forms a main lashing point for attachment of human external cargo characterised in that each lateral attachment comprises an associated inner web that is connected to the mounting base carrier and the connecting member ; and wherein the associated inner webs of the plurality of lateral attachments are spaced apart from each other in peripheral direction of the mounting base carrier and form a tube-shaped inner region extending in height direction of the device body . a mounting interface with a mounting base carrier that is removably attachable to an associated attachment for attachment to a rotorcraft rope or cable ; a connecting member that is spaced apart from the mounting base carrier ; and a plurality of lateral attachments which are connected to the mounting base carrier and the connecting member ; wherein the plurality of lateral attachments , the mounting base carrier , and the connecting member form a device body with a height direction ; wherein the connecting member is spaced apart from the mounting base carrier in the height direction of the device body ; wherein each lateral attachment of the plurality of lateral attachments forms a main lashing point for attachment of human external cargo characterised in that each lateral attachment comprises an associated inner web that is connected to the mounting base carrier and the connecting member ; and wherein the associated inner webs of the plurality of lateral attachments are spaced apart from each other in peripheral direction of the mounting base carrier and form a tube-shaped inner region extending in height direction of the device body .
A body fluid testing device having an improved illumination, the testing device comprising: a test unit including: a sample part having a sheet portion , configured for the application of body fluid of a user onto a first surface thereof; an illumination part having a light source for providing light to the sample part ; a battery for supplying power to the illumination part ; and a casing receiving a lens group for magnifying the body fluid applied onto the sheet portion ; and a user terminal comprising a camera configured to take an image of the sample part magnified by the lens group , prior to analysis of the image by the user terminal , characterized by the sample part comprising an electrode portion provided with a conductive pattern, wherein, the conductive pattern of the electrode portion is configured to form a closed circuit when the sample part is inserted into the test unit , and wherein the closed circuit supplies power of the battery to the light source to cause the light source to automatically emit light when the sample part is inserted into the test unit . a test unit including: a sample part having a sheet portion , configured for the application of body fluid of a user onto a first surface thereof; an illumination part having a light source for providing light to the sample part ; a battery for supplying power to the illumination part ; and a casing receiving a lens group for magnifying the body fluid applied onto the sheet portion ; and a user terminal comprising a camera configured to take an image of the sample part magnified by the lens group , prior to analysis of the image by the user terminal , characterized by the sample part comprising an electrode portion provided with a conductive pattern, wherein, the conductive pattern of the electrode portion is configured to form a closed circuit when the sample part is inserted into the test unit , and wherein the closed circuit supplies power of the battery to the light source to cause the light source to automatically emit light when the sample part is inserted into the test unit .
Access-denial concrete bollard , preferably made of fiber-reinforced concrete, comprising a body which has at least two opposite faces referred to as the lower face and upper face , and one peripheral wall referred to as the side wall connecting the two opposite faces , and anchoring means intended for lifting the bollard, the anchoring means being secured to the body and arranged in blind cavities without protruding outside these cavities, in particular arranged in one of the faces of the body of the bollard such as the upper face of the bollard in the installed position of the bollard on the ground, the anchoring means extending from the bottom of the cavity and being at most coplanar with the plane of the external face of the body comprising the cavities, and the body comprising blockouts , characterized in that the external surface of the side wall comprises, on the whole of its periphery, a blockout forming a recess of the external surface for housing a peripheral groove surrounding the bollard.
A method for correcting errors in rate data output by inertial sensors indicative of a rate of change in orientation in inertial space of an object to which the inertial sensors are attached, the object also having a non-inertial tracker system arranged to determine orientation of the object referenced to a frame of reference of a moveable platform with which the object is associated, the method comprising the steps: (i) receiving rate data output by the inertial sensors; (ii) receiving orientation data from the non-inertial tracker system; (iii) receiving orientation data indicative of orientation of the moveable platform in inertial space; (iv) deriving rate data from a synchronised combination of orientation data received at steps (ii) and (iii) to provide a measure of the rate of change in orientation of the object in inertial space; (v) determining, from a synchronised combination of rate data received at step (i) and rate data derived at step (iv), a correction for errors in rate data output by the inertial sensors due to misalignment, including non-orthogonality of axes of the inertial sensors or a difference in alignment of one or more axes of the inertial sensors and corresponding axes in a frame of reference of the non-inertial tracker system; and (vi) applying the correction determined at step (v) to rate data output by the inertial sensors, wherein, at step (v), the correction is defined by a mapping between vectors linking points in an inertial sensor rate space represented by a sample set of rate data received at step (i) and vectors linking points in a derived object orientation rate space represented by a corresponding synchronised sample set of rate data derived at step (iv). (i) receiving rate data output by the inertial sensors; (ii) receiving orientation data from the non-inertial tracker system; (iii) receiving orientation data indicative of orientation of the moveable platform in inertial space; (iv) deriving rate data from a synchronised combination of orientation data received at steps (ii) and (iii) to provide a measure of the rate of change in orientation of the object in inertial space; (v) determining, from a synchronised combination of rate data received at step (i) and rate data derived at step (iv), a correction for errors in rate data output by the inertial sensors due to misalignment, including non-orthogonality of axes of the inertial sensors or a difference in alignment of one or more axes of the inertial sensors and corresponding axes in a frame of reference of the non-inertial tracker system; and (vi) applying the correction determined at step (v) to rate data output by the inertial sensors, wherein, at step (v), the correction is defined by a mapping between vectors linking points in an inertial sensor rate space represented by a sample set of rate data received at step (i) and vectors linking points in a derived object orientation rate space represented by a corresponding synchronised sample set of rate data derived at step (iv).
An energy storage module comprising: a cover member comprising an internal receiving space configured to accommodate battery cells each comprising a vent ; a top plate coupled to a top of the cover member and comprising ducts respectively corresponding to the vents of the battery cells ; a top cover coupled to a top portion of the top plate and comprising discharge holes located in an exhaust area and respectively corresponding to the ducts ; and an extinguisher sheet located between the top cover and the top plate , and configured to emit a fire extinguishing agent at a temperature exceeding a reference temperature, wherein the top cover comprises protrusion parts located on a bottom surface of the top cover , covering the exhaust area , and coupled to an exterior of the ducts . a cover member comprising an internal receiving space configured to accommodate battery cells each comprising a vent ; a top plate coupled to a top of the cover member and comprising ducts respectively corresponding to the vents of the battery cells ; a top cover coupled to a top portion of the top plate and comprising discharge holes located in an exhaust area and respectively corresponding to the ducts ; and an extinguisher sheet located between the top cover and the top plate , and configured to emit a fire extinguishing agent at a temperature exceeding a reference temperature, wherein the top cover comprises protrusion parts located on a bottom surface of the top cover , covering the exhaust area , and coupled to an exterior of the ducts .
A method for producing a ferric maltol composition comprising reacting ferrous hydroxide with maltol and recovering the ferric maltol that forms, preferably wherein the ferric maltol is ferric trimaltol, preferably wherein the ferrous hydroxide is ligand modified ferrous hydroxide or ligand coated ferrous hydroxide, preferably wherein ferrous hydroxide is in the form of a colloid or gel, preferably wherein the maltol is in the form of a slurry or suspension of maltol.
Energy production system comprising: - an energy production device comprising an energy production unit for producing energy from a product in the form of particles , and a supply device for supplying the production unit , - a container defining an internal volume for receiving the product in the form of particles , - at least one removable connection unit comprising at least one first connection element connected to the energy production device and at least one complementary second connection element connected to the container , the connection unit having a coupled configuration in which the first connection element cooperates with the complementary second connection element and the internal volume communicates with the supply device so that the particles can be transferred from the internal volume to the supply device , and an uncoupled configuration in which the two connection elements are separated, and when the connection unit is in the uncoupled configuration, the container is movable relative to the energy production device between a close position and a remote position, characterised in that the energy production system comprises a plurality of containers , the supply device being capable of being connected to each container by a connection unit . - an energy production device comprising an energy production unit for producing energy from a product in the form of particles , and a supply device for supplying the production unit , - a container defining an internal volume for receiving the product in the form of particles , - at least one removable connection unit comprising at least one first connection element connected to the energy production device and at least one complementary second connection element connected to the container ,