mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a session management function, SMF, in a wireless communication system, the method comprising: transmitting , to a data network authentication authorization accounting, DN-AAA, server, a first message for authenticating a protocol data unit, PDU, session associated with a terminal during establishment of said PDU session; said method being characterized by : receiving , from the DN-AAA server, a second message as a response to the first message, the second message including a data network, DN, profile index; requesting a policy control function, PCF, so as to receive, from the PCF, a quality of service, QoS, profile associated with the DN profile index. receiving , from the DN-AAA server, a second message as a response to the first message, the second message including a data network, DN, profile index; requesting a policy control function, PCF, so as to receive, from the PCF, a quality of service, QoS, profile associated with the DN profile index.
An aircraft fuel ice capturing filter device housing comprising: (a) an aircraft fuel inlet ; (b) an aircraft fuel outlet ; (c) a main housing body receiving a flow of aircraft fuel from the aircraft fuel inlet , the main housing body comprising a cylindrical element having a central cavity , an inner surface , an outer surface , and a vertical axis (A-A); and, (d) a cylindrical hollow insert contacting the inner surface of the main housing body ; wherein the aircraft fuel inlet is arranged generally perpendicular to the vertical axis (A-A) of the cylindrical element and is configured to provide tangential aircraft fuel flow around the cylindrical element; and, wherein the cylindrical hollow insert in the main housing body is configured to receive an aircraft fuel filter comprising a porous aircraft fuel filter element ; characterized in that the cylindrical hollow insert having a plurality of spaced-apart ice-capturing filters , each of the plurality of spaced-apart ice-capturing filters having a front end , a rear end , a top wall , a first side , a second side , a bottom opening , and a plurality of apertures passing through the top wall , wherein the top wall at the front end of each of the plurality of spaced-apart ice-capturing filters is raised a distance from the inner surface of the cylindrical element, forming an opening arranged normal to aircraft fuel flow. (a) an aircraft fuel inlet ; (b) an aircraft fuel outlet ; (c) a main housing body receiving a flow of aircraft fuel from the aircraft fuel inlet , the main housing body comprising a cylindrical element having a central cavity , an inner surface , an outer surface , and a vertical axis (A-A); and, (d) a cylindrical hollow insert contacting the inner surface of the main housing body ; wherein the aircraft fuel inlet is arranged generally perpendicular to the vertical axis (A-A) of the cylindrical element and is configured to provide tangential aircraft fuel flow around the cylindrical element; and, wherein the cylindrical hollow insert in the main housing body is configured to receive an aircraft fuel filter comprising a porous aircraft fuel filter element ; wherein the aircraft fuel inlet is arranged generally perpendicular to the vertical axis (A-A) of the cylindrical element and is configured to provide tangential aircraft fuel flow around the cylindrical element; and, wherein the cylindrical hollow insert in the main housing body is configured to receive an aircraft fuel filter comprising a porous aircraft fuel filter element ;
Method for purifying waste water by means of photosynthetically active algae which form a sediment when in a rest state, comprising the steps: a. supplying waste water to photosynthetically active algae which form a sediment when in a rest state, b. conveying the waste water supplied to the algae counter to gravity from a lower level to a higher level while simultaneously exposing the waste water mixed with the algae to light, c. introducing the waste water supplied to the algae from the higher level into the upper region of a settling container , d. letting the algae sediment in the settling container and e. removing the waste water, which is released from the algae by sedimentation, as purified wastewater. a. supplying waste water to photosynthetically active algae which form a sediment when in a rest state, b. conveying the waste water supplied to the algae counter to gravity from a lower level to a higher level while simultaneously exposing the waste water mixed with the algae to light, c. introducing the waste water supplied to the algae from the higher level into the upper region of a settling container , d. letting the algae sediment in the settling container and e. removing the waste water, which is released from the algae by sedimentation, as purified wastewater.
A method for determining a drift in clock data that is provided by a clock of a seismic sensor , wherein the sensor is exposed to an ambient temperature that varies over time, the method comprising: obtaining temperature data (S1) from the seismic sensor exposed to the ambient environment, wherein the temperature data is associated with the ambient temperature as a function of time; obtaining the clock data (S2); obtaining timestamp (S3) data provided by a global navigation satellite system ; determining a temporal drift (S3) in the clock data based on a difference between the clock data and the timestamp data; characterized in that the method comprises: parametrizing drift data based on the temperature data obtained from the seismic sensor; and determining corrective data for correcting the clock data by minimizing a difference between the parametrized drift data and the temporal drift in the clock data. obtaining temperature data (S1) from the seismic sensor exposed to the ambient environment, wherein the temperature data is associated with the ambient temperature as a function of time; obtaining the clock data (S2); obtaining timestamp (S3) data provided by a global navigation satellite system ; determining a temporal drift (S3) in the clock data based on a difference between the clock data and the timestamp data; characterized in that the method comprises: parametrizing drift data based on the temperature data obtained from the seismic sensor; and determining corrective data for correcting the clock data by minimizing a difference between the parametrized drift data and the temporal drift in the clock data. parametrizing drift data based on the temperature data obtained from the seismic sensor; and determining corrective data for correcting the clock data by minimizing a difference between the parametrized drift data and the temporal drift in the clock data.
A resin structure comprising a resin formed body and a liquid layer formed on a surface of said resin formed body, said liquid layer having portions that are locally protruded on the surface thereof, wherein: - fine protrusions having heights of not less than 0.7 μ m are distributed on the surface of said liquid layer at a density of 20 to 100 protrusions/mm 2 ; - a maximum height of the protrusions is in a range of 1.5 to 40 μ m; - the fine protrusions having heights of not less than 0.7 μ m are observed on the surface of said liquid layer maintaining a gap of 100 to 300 μ m on the average; - the protrusions remain stable at predetermined positions; and - said liquid layer is present on the surface of said resin formed body in an amount of 0.5 to 30 g/m 2 . - fine protrusions having heights of not less than 0.7 μ m are distributed on the surface of said liquid layer at a density of 20 to 100 protrusions/mm 2 ; - a maximum height of the protrusions is in a range of 1.5 to 40 μ m; - the fine protrusions having heights of not less than 0.7 μ m are observed on the surface of said liquid layer maintaining a gap of 100 to 300 μ m on the average; - the protrusions remain stable at predetermined positions; and - said liquid layer is present on the surface of said resin formed body in an amount of 0.5 to 30 g/m 2 .
A method for transmitting uplink data, comprising: determining (S101), by a network side, a size of a slot for transmitting data, and transmitting uplink scheduling signaling to a User Equipment, UE, according to the size of the slot; and receiving (S102), by the network side, uplink data transmitted by the UE according to predefined scheduling timing; wherein the slot is a temporal unit with a length shorter than 1 millisecond, and the predefined scheduling timing is: when the network side transmits the uplink scheduling signaling in a slot n, the network side receives the uplink data transmitted by the UE in a slot n+l, wherein l ∈L, n is an integer more than or equal to zero, 1 is an integer greater than or equal to 1, and L represents a set of values of l ; wherein the length of the slot is seven Orthogonal Frequency Division Multiplexing, OFDM, symbols, and a radio frame comprises 20 slots; and for the downlink slot n=0 or 1 or 10 or 11, L = ; for the downlink slot n=2 or 12, L = ; and for the downlink slot n=8 or 18, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 8 or 11 or 18, L = ; and for the downlink slot n=2 or 6 or 12 or 16, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 11, L = ; and for the downlink slot n=2 or 12, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 11, L = ; and for the downlink slot n=2 or 12, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 11, L = ; and for the downlink slot n=2 or 12, L = . determining (S101), by a network side, a size of a slot for transmitting data, and transmitting uplink scheduling signaling to a User Equipment, UE, according to the size of the slot; and receiving (S102), by the network side, uplink data transmitted by the UE according to predefined scheduling timing; wherein the slot is a temporal unit with a length shorter than 1 millisecond, and the predefined scheduling timing is: when the network side transmits the uplink scheduling signaling in a slot n, the network side receives the uplink data transmitted by the UE in a slot n+l, wherein l ∈L, n is an integer more than or equal to zero, 1 is an integer greater than or equal to 1, and L represents a set of values of l ; wherein the length of the slot is seven Orthogonal Frequency Division Multiplexing, OFDM, symbols, and a radio frame comprises 20 slots; and for the downlink slot n=0 or 1 or 10 or 11, L = ; for the downlink slot n=2 or 12, L = ; and for the downlink slot n=8 or 18, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 8 or 11 or 18, L = ; and for the downlink slot n=2 or 6 or 12 or 16, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 11, L = ; and for the downlink slot n=2 or 12, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 11, L = ; and for the downlink slot n=2 or 12, L = ; or for the downlink slot n=0 or 10, L = ; for the downlink slot n=1 or 11, L = ; and for the downlink slot n=2 or 12, L = .
A seal for sealing a space defined by first and second adjacent components disposed about an axial centerline, the seal comprising: a first substantially C-shaped seal section including a first base and first and second legs extending from the first base and defining a first cavity; a second seal section at least partially disposed within the first cavity; and a wave spring disposed within the first cavity between the first and second seal sections and operative to bias the first seal section away from the second seal section ; said second seal section is a substantially C-shaped seal section including a second base and third and fourth legs extending from the second base and defining a second cavity; characterised in that a compliant seal is partially disposed within the second cavity; the first and second seal sections are configured to move relative to one another; and the legs of the second seal section mechanically trap the compliant seal while exposing enough of the compliant seal to allow it to conform to a surface of the second component . a first substantially C-shaped seal section including a first base and first and second legs extending from the first base and defining a first cavity; a second seal section at least partially disposed within the first cavity; and a wave spring disposed within the first cavity between the first and second seal sections and operative to bias the first seal section away from the second seal section ; said second seal section is a substantially C-shaped seal section including a second base and third and fourth legs extending from the second base and defining a second cavity; characterised in that a compliant seal is partially disposed within the second cavity; the first and second seal sections are configured to move relative to one another; and the legs of the second seal section mechanically trap the compliant seal while exposing enough of the compliant seal to allow it to conform to a surface of the second component .
Box comprising: ▪ a frame delimiting an interior space for the box and comprising an opening allowing access to said interior space, ▪ a security door and ▪ a hinge mechanically connecting the security door to the frame , such that the security door can pivot about a pivot access in a free pivoting range (P PL ), the free pivoting range including a closed position, in which the security door closes the opening, and an open position, in which the security door leaves the opening free, the box being characterised in that the hinge is arranged such that the security door can be mounted and removed from the frame by displacement in translation along the pivot axis, and in that it further comprises: ▪ pivot limiting means for limiting the pivoting of the security door in a reduced pivoting range (P PR ), the reduced pivoting range being less extensive than the free pivoting range (P PL ) and including the closed position and the open position, ▪ a protrusion joined to the security door and projecting in a direction parallel to the pivot axis, and ▪ a stop joined to the frame and projecting in a direction perpendicular to the pivot axis, the protrusion and the stop being arranged to define, within the free pivoting range (P PL ), a blocked translation range (P TB ), in which the protrusion is opposite the stop and limits the translational movement of the security door along the pivot axis and a free translation range (P TL ), in which the protrusion is disengaged from the stop, allowing a translational movement of the security door along the pivot axis, the free translation range (P TL ) being separate from the reduced pivot range (P PR ). ▪ a frame delimiting an interior space for the box and comprising an opening allowing access to said interior space, ▪ a security door and ▪ a hinge mechanically connecting the security door to the frame , such that the security door can pivot about a pivot access in a free pivoting range (P PL ), the free pivoting range including a closed position, in which the security door closes the opening, and an open position, in which the security door leaves the opening free, ▪ pivot limiting means for limiting the pivoting of the security door in a reduced pivoting range (P PR ), the reduced pivoting range being less extensive than the free pivoting range (P PL ) and including the closed position and the open position, ▪ a protrusion joined to the security door and projecting in a direction parallel to the pivot axis, and ▪ a stop joined to the frame and projecting in a direction perpendicular to the pivot axis,
Rotor for hedge and grass cutting apparatus comprising: - an axial part driven in rotation about its axis forming a central axis (2 bis), - at least one tool mounted so as to rotate about a peripheral axis , this peripheral axis being arranged parallel to the central axis , held in position and driven in rotation with the axial part by at least one frame rigidly fastened to the axial part , wherein the axial part and the position of the tool are carried out in such a way that the ratio between the radius of rotation of the tool , in which it lies about the peripheral axis , and the diameter of the axial part is less than 0.46, and the tool is carried out by a blade mounted on the peripheral axis of rotation so that, firstly, the cutting edge of the blade is positioned along an axis parallel to the peripheral axis of rotation and, secondly, the cutting edge of the blade furthest away from the peripheral axis of rotation forms the surface of the tool furthest away from the peripheral axis of rotation, characterized in that at least one part of the surface of the blade which is exterior relative to the peripheral axis of rotation has a cut-out . - an axial part driven in rotation about its axis forming a central axis (2 bis), - at least one tool mounted so as to rotate about a peripheral axis , this peripheral axis being arranged parallel to the central axis , held in position and driven in rotation with the axial part by at least one frame rigidly fastened to the axial part , wherein the axial part and the position of the tool are carried out in such a way that the ratio between the radius of rotation of the tool , in which it lies about the peripheral axis , and the diameter of the axial part is less than 0.46, and the tool is carried out by a blade mounted on the peripheral axis of rotation so that, firstly, the cutting edge of the blade is positioned along an axis parallel to the peripheral axis of rotation and, secondly, the cutting edge of the blade furthest away from the peripheral axis of rotation forms the surface of the tool furthest away from the peripheral axis of rotation, characterized in that at least one part of the surface of the blade which is exterior relative to the peripheral axis of rotation has a cut-out .
Stator for a multipolar brushless internal rotor motor, with a stator yoke composed of stator plates , including a hollow yoke body with multiple stator teeth protruding radially inwards with regard to an axis of the stator , said teeth defining between them stator grooves and having a stator coil wound around each of them, wherein an insulation paper is placed between the stator coils and the stator grooves in order to provide an electric insulation between the stator yoke and the stator coils , and both axial ends of the stator yoke are each covered with a plastic cover , wherein the stator teeth comprise lateral recesses at both axial ends of the stator yoke , whereby the width of the stator teeth measured in a peripheral direction is reduced, and wherein corresponding projections of the plastic cover engage into the recesses , wherein the stator plates are constituted as one-piece, annular stator plates including teeth that protrude radially inwards and are assembled into a stack of plates, wherein the plastic cover is also implemented in one piece, characterized in that the plastic covers and their respective projections are not overlaid with the insulation paper but rather connect axially with the insulation paper .
A process comprising the steps of: reacting iron oxide particles or iron oxide hydroxide particles with a phosphorus compound in a solution thereof, which comprises using as iron raw materials the iron oxide particles or the iron oxide hydroxide particles having a BET specific surface area of not less than 50 m 2 /g, and conducting the reaction in a temperature range of 60 to 100°C, wherein a reaction concentration in the solution is in the range of 0.1 to 3.0 mol/L based on a concentration of iron therein, an amount of the phosphorus compound added as a raw material charged is 100 to 1000% in terms of mol% of phosphorus ions based on iron ions, and a pH value of the reaction solution is not more than 3, to produce ferric phosphate hydrate particles which have a sodium (Na) content of not more than 100 ppm, and a molar ratio of phosphorus to iron (phosphorus/iron) of 0.9 to 1.1; mixing the ferric phosphate hydrate particles with a lithium compound and an organic compound; and subjecting the resulting mixture to a heat treatment in an inert atmosphere or a reducing atmosphere at a temperature of 300 to 800°C, to produce olivine type lithium iron phosphate particles. reacting iron oxide particles or iron oxide hydroxide particles with a phosphorus compound in a solution thereof, which comprises using as iron raw materials the iron oxide particles or the iron oxide hydroxide particles having a BET specific surface area of not less than 50 m 2 /g, and conducting the reaction in a temperature range of 60 to 100°C, wherein a reaction concentration in the solution is in the range of 0.1 to 3.0 mol/L based on a concentration of iron therein, an amount of the phosphorus compound added as a raw material charged is 100 to 1000% in terms of mol% of phosphorus ions based on iron ions, and a pH value of the reaction solution is not more than 3, to produce ferric phosphate hydrate particles which have a sodium (Na) content of not more than 100 ppm, and a molar ratio of phosphorus to iron (phosphorus/iron) of 0.9 to 1.1; mixing the ferric phosphate hydrate particles with a lithium compound and an organic compound; and subjecting the resulting mixture to a heat treatment in an inert atmosphere or a reducing atmosphere at a temperature of 300 to 800°C, to produce olivine type lithium iron phosphate particles.
A composition comprising a plurality of exosomes, wherein the plurality of the exosomes are isolated from cardiosphere-derived cells (CDCs) grown in serum-free media, comprise exosomes with a diameter of 90 nm to 200 nm and are CD81+, CD63+, or both, for use in a human in a method of treating progressive reduction in Left Ventricular Ejection Fraction (LVEF) heart failure secondary to a chronic degenerative muscular dystrophy, wherein the composition is cell-free and lacks CDCs.
A sensor probe , comprising: a Rogowski coil forming a loop having first and second leads at opposing ends of the loop, the loop having a central region configured to receive a conductor ; and a non-contact sensor coupled to the Rogowski coil , the non-contact sensor including a non-contact sensor element and a clamp having a pair of clamping jaws, the pair of clamping jaws being configured to hold the conductor in the central region of the loop formed by the Rogowski coil, wherein the non-contact sensor element is configured to press against the conductor to sense an electrical characteristic of the conductor ; wherein the sensor probe is characterised in that the non-contact sensor is configured to be separated from the Rogowski coil in a separated state, wherein the non-contact sensor and the Rogowski coil are operable in the separated state. a Rogowski coil forming a loop having first and second leads at opposing ends of the loop, the loop having a central region configured to receive a conductor ; and a non-contact sensor coupled to the Rogowski coil , the non-contact sensor including a non-contact sensor element and a clamp having a pair of clamping jaws, the pair of clamping jaws being configured to hold the conductor in the central region of the loop formed by the Rogowski coil, wherein the non-contact sensor element is configured to press against the conductor to sense an electrical characteristic of the conductor ; wherein the sensor probe is characterised in that the non-contact sensor is configured to be separated from the Rogowski coil in a separated state, wherein the non-contact sensor and the Rogowski coil are operable in the separated state.