mhurhangee/patent-ind-claim-en huggingface dataset:
A high pressure laminate production installation for producing high pressure laminate with (a) a laminate layer production device for producing a laminate layer and (b) a double-belt press which (i) is arranged to press the laminate layer to form high pressure laminate and comprises (ii) at least one press belt , (iii) a pressing device for pressing the press belt onto the laminate layer and (iv) a compressed air source that is arranged to form an air cushion between the pressing device and the press belt , (c) wherein the compressed air source has a compressed air heating system for heating the compressed air and (d) wherein the compressed air heating system features at least one electric heating element for electrically heating the compressed air , characterised by (e) a thermal oil heating system which is arranged to heat the pressing device and comprises a thermal oil feed for feeding hot thermal oil to the pressing device and a thermal oil outlet for discharging cold thermal oil from the pressing device , (f) wherein the compressed air source is designed to release compressed air with at least 3 MPa and the heater has a thermal oil operating pressure of at most 1.0 MPa. (a) a laminate layer production device for producing a laminate layer and (b) a double-belt press which (i) is arranged to press the laminate layer to form high pressure laminate and comprises (ii) at least one press belt , (iii) a pressing device for pressing the press belt onto the laminate layer and (iv) a compressed air source that is arranged to form an air cushion between the pressing device and the press belt , (i) is arranged to press the laminate layer to form high pressure laminate and comprises (ii) at least one press belt , (iii) a pressing device for pressing the press belt onto the laminate layer and (iv) a compressed air source that is arranged to form an air cushion between the pressing device and the press belt , (c) wherein the compressed air source has a compressed air heating system for heating the compressed air and (d) wherein the compressed air heating system features at least one electric heating element for electrically heating the compressed air , characterised by (e) a thermal oil heating system which is arranged to heat the pressing device and comprises a thermal oil feed for feeding hot thermal oil to the pressing device and a thermal oil outlet for discharging cold thermal oil from the pressing device , is arranged to heat the pressing device and comprises a thermal oil feed for feeding hot thermal oil to the pressing device and a thermal oil outlet for discharging cold thermal oil from the pressing device , (f) wherein the compressed air source is designed to release compressed air with at least 3 MPa and the heater has a thermal oil operating pressure of at most 1.0 MPa.
Method for controlling an inerting system designed to inject, during an actual mission of an aircraft, a flow of inerting gas into at least one fuel tank of said aircraft, the method consisting in carrying out the steps of: - determining a value of at least one parameter of the actual mission of the aircraft at a given time and characterised by the steps of - establishing the relation between the determined value of the parameter of the actual mission and a value of an equivalent parameter at the given time of a certified standard mission profile, and deriving therefrom a weighting coefficient; - weighting with the weighting coefficient a value of the flow of inerting gas prescribed by the certified standard mission profile for the value of the equivalent parameter at the given time, in order to determine a flow of inerting gas to be injected adapted to the need of the actual mission at the given time; - controlling the inerting system to inject at the given time the determined flow of inerting gas. - determining a value of at least one parameter of the actual mission of the aircraft at a given time and characterised by the steps of - establishing the relation between the determined value of the parameter of the actual mission and a value of an equivalent parameter at the given time of a certified standard mission profile, and deriving therefrom a weighting coefficient; - weighting with the weighting coefficient a value of the flow of inerting gas prescribed by the certified standard mission profile for the value of the equivalent parameter at the given time, in order to determine a flow of inerting gas to be injected adapted to the need of the actual mission at the given time; - controlling the inerting system to inject at the given time the determined flow of inerting gas.
A method of detecting vascular inflammation comprising determining perivascular water index (PVWi) of a blood vessel by: (i) using data gathered from a computer tomography scan along a length of the vessel to determine the total volume of voxels of water within an attenuation window around the attenuation of water within the perivascular space in a pre-determined distance from the outer wall of the vessel, and (ii) correcting the total volume of the voxels of water for the volume of the vessel by dividing the total volume of voxels of water determined in step (i) by the total perivascular volume, wherein the total perivascular volume is defined as the total volume of voxels within the pre-determined distance; wherein the pre-determined distance is a radial distance away from the outer wall of the vessel and is: a distance equal to the diameter or radius of the underlying vessel; a distance that is representative of any subdivision or multiple of the radius or diameter of the vessel; or a standard distance of 5 mm; wherein vascular inflammation is detected using the perivascular water index (PVWi) alone as a functional biomarker of the vascular inflammation; and wherein the method is not a method for performing a mental act. (i) using data gathered from a computer tomography scan along a length of the vessel to determine the total volume of voxels of water within an attenuation window around the attenuation of water within the perivascular space in a pre-determined distance from the outer wall of the vessel, and (ii) correcting the total volume of the voxels of water for the volume of the vessel by dividing the total volume of voxels of water determined in step (i) by the total perivascular volume, wherein the total perivascular volume is defined as the total volume of voxels within the pre-determined distance; wherein the pre-determined distance is a radial distance away from the outer wall of the vessel and is: a distance equal to the diameter or radius of the underlying vessel; a distance that is representative of any subdivision or multiple of the radius or diameter of the vessel; or a standard distance of 5 mm; wherein vascular inflammation is detected using the perivascular water index (PVWi) alone as a functional biomarker of the vascular inflammation; and wherein the method is not a method for performing a mental act. a distance equal to the diameter or radius of the underlying vessel; a distance that is representative of any subdivision or multiple of the radius or diameter of the vessel; or a standard distance of 5 mm; wherein vascular inflammation is detected using the perivascular water index (PVWi) alone as a functional biomarker of the vascular inflammation; and wherein the method is not a method for performing a mental act.
A leg training fitness device comprising: a body attachment portion , wherein a foot of a user is attachable to the body attachment portion, and wherein the foot is detachable from the body attachment portion; and a weight attachment portion , wherein a weight is attachable to the weight attachment portion, and wherein the weight is detachable from the weight attachment portion, characterized in that the body attachment portion comprises a base support and a lateral support , and that the weight attachment portion comprises a plurality of hooks (207 to 209), a first of the plurality of hooks (207 to 209) being disposed on a lower surface of the base support , and a second of the plurality of hooks (207 to 209) being disposed on a lower surface of the lateral support ; and the first of the plurality of hooks (207 to 209) and the base support are integrally formed as a single and unitary structure, and the second of the plurality of hooks (207 to 209) and the lateral support are integrally formed as a single and unitary structure, wherein the base support and the lateral support are rotatable around a hinge axis between an open configuration and a closed configuration; in the open configuration, the plurality of hooks (207 to 209) opens such that the weight is attachable or detachable from the weight attachment portion, and in the closed configuration, the plurality of hooks (207 to 209) clamps the weight such that the weight is secured within the weight attachment portion and such that the foot is insertable into the body attachment portion . a body attachment portion , wherein a foot of a user is attachable to the body attachment portion, and wherein the foot is detachable from the body attachment portion; and a weight attachment portion , wherein a weight is attachable to the weight attachment portion, and wherein the weight is detachable from the weight attachment portion, characterized in that the body attachment portion comprises a base support and a lateral support , and that the weight attachment portion comprises a plurality of hooks (207 to 209), a first of the plurality of hooks (207 to 209) being disposed on a lower surface of the base support , and a second of the plurality of hooks (207 to 209) being disposed on a lower surface of the lateral support ; and the first of the plurality of hooks (207 to 209) and the base support are integrally formed as a single and unitary structure, and the second of the plurality of hooks (207 to 209) and the lateral support are integrally formed as a single and unitary structure, wherein the base support and the lateral support are rotatable around a hinge axis between an open configuration and a closed configuration; in the open configuration, the plurality of hooks (207 to 209) opens such that the weight is attachable or detachable from the weight attachment portion, and in the closed configuration, the plurality of hooks (207 to 209) clamps the weight such that the weight is secured within the weight attachment portion and such that the foot is insertable into the body attachment portion .
Implantable tube valve for implanting in a human vessel, comprising: - a tube , having an inner and outer tube wall extending between two axial tube ends; - a valve member , connected to a pivot shaft supported by the tube , with the valve member pivotable between an open position and a closed position; - an actuator mechanism , mounted on the outer tube wall; - a pivot member , arranged for driving the pivot shaft from the outer tube wall by an actuation force from the actuator mechanism; and - at least one biasing element , connected to the pivot member and arranged for preloading the pivot member to bistably bias the valve member towards the open or closed position; characterized in that the biasing element comprises at least two bow-shaped rods that are interconnected at both ends in a mirrored fashion. - a tube , having an inner and outer tube wall extending between two axial tube ends; - a valve member , connected to a pivot shaft supported by the tube , with the valve member pivotable between an open position and a closed position; - an actuator mechanism , mounted on the outer tube wall; - a pivot member , arranged for driving the pivot shaft from the outer tube wall by an actuation force from the actuator mechanism; and - at least one biasing element , connected to the pivot member and arranged for preloading the pivot member to bistably bias the valve member towards the open or closed position;
A turbofan engine including: an engine case with an inlet and an interior of the engine ; a bearing disposed on a portion of the engine case ; the portion being substantially parallel to the centerline of the engine ; a fan is disposed within the interior and rotates with operation of the engine , the fan having a plurality of fan blades , each fan blade is secured at a first end to a disk , and a second end of each fan blade is disposed adjacent to the bearing , characterized in that : the bearing is an abradable member having a non-uniform thickness or cross-section from the inlet to the interior , such that the bearing tapers from a first edge adjacent the inlet to a second edge 38 toward the interior and by virtue of the taper provides a narrowing of the engine inlet toward the interior of the engine at the bearing such that a force on a fan blade impacting the bearing directs the fan blade axially inward or away from the inlet . an engine case with an inlet and an interior of the engine ; a bearing disposed on a portion of the engine case ; the portion being substantially parallel to the centerline of the engine ; a fan is disposed within the interior and rotates with operation of the engine , the fan having a plurality of fan blades , each fan blade is secured at a first end to a disk , and a second end of each fan blade is disposed adjacent to the bearing , characterized in that : the bearing is an abradable member having a non-uniform thickness or cross-section from the inlet to the interior , such that the bearing tapers from a first edge adjacent the inlet to a second edge 38 toward the interior and by virtue of the taper provides a narrowing of the engine inlet toward the interior of the engine at the bearing such that a force on a fan blade impacting the bearing directs the fan blade axially inward or away from the inlet .
An apparatus comprising a processor and a memory , the apparatus further including computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to: receive a configuration for monitoring potential preemption occasions; receive a URLLC Preemption Radio Network Identifier, UP-RNTI, for identifying a preemption indication message, wherein the UP-RNTI is assigned to a group of devices; monitor at least one preconfigured occasion for a preemption indication on a group-common physical downlink, DL, control channel; determine that the apparatus is a valid recipient of the preemption indication upon detecting the preemption indication with the UP-RNTI based on the preemption indication, identify a second resource out of first resources for a first transmission, the second resource being preempted for a second transmission; and receive retransmission resources for a retransmission of one or more preempted resources for the first transmission. receive a configuration for monitoring potential preemption occasions; receive a URLLC Preemption Radio Network Identifier, UP-RNTI, for identifying a preemption indication message, wherein the UP-RNTI is assigned to a group of devices; monitor at least one preconfigured occasion for a preemption indication on a group-common physical downlink, DL, control channel; determine that the apparatus is a valid recipient of the preemption indication upon detecting the preemption indication with the UP-RNTI based on the preemption indication, identify a second resource out of first resources for a first transmission, the second resource being preempted for a second transmission; and receive retransmission resources for a retransmission of one or more preempted resources for the first transmission.
A touch substrate, comprising: a base substrate; and a touch electrode layer on the base substrate comprising a first region (R1) having a plurality of first mesh electrode patterns (MEP1), a second region (R2) having a plurality of second mesh electrode patterns (MEP2) corresponding to the plurality of first mesh electrode patterns (MEP1), and an interface region (IR) between the first region (R1) and the second region (R2); each of the plurality of first mesh electrode patterns (MEP1) comprising a plurality of first mesh electrode lines (MEL1) having a first line width (W1), a corresponding second mesh electrode pattern (MEP2) comprising a plurality of second mesh electrode lines (MEL2) corresponding to the plurality of first mesh electrode lines (MEL1) and having the first line width (W1); the plurality of first mesh electrode lines (MEL1) extend from the first region (R1) into the interface region (IR); a pair of corresponding first mesh electrode line (MEL1) and second mesh electrode line (MEL2) being electrically connected to each other in the interface region (IR); wherein the first mesh electrode line (MEL1) in the interface region (IR) has a second line width (W2) no less than the first line width (W1); characterized in that the first mesh electrode line (MEL1) in the interface region (IR) is offset from the corresponding second mesh electrode line (MEL2); optionally, the first mesh electrode line (MEL1) in the interface region (IR) is offset from the corresponding second mesh electrode line (MEL2) by an offset width less than the first line width (W1). a base substrate; and a touch electrode layer on the base substrate comprising a first region (R1) having a plurality of first mesh electrode patterns (MEP1), a second region (R2) having a plurality of second mesh electrode patterns (MEP2) corresponding to the plurality of first mesh electrode patterns (MEP1), and an interface region (IR) between the first region (R1) and the second region (R2); each of the plurality of first mesh electrode patterns (MEP1) comprising a plurality of first mesh electrode lines (MEL1) having a first line width (W1), a corresponding second mesh electrode pattern (MEP2) comprising a plurality of second mesh electrode lines (MEL2) corresponding to the plurality of first mesh electrode lines (MEL1) and having the first line width (W1); the plurality of first mesh electrode lines (MEL1) extend from the first region (R1) into the interface region (IR); a pair of corresponding first mesh electrode line (MEL1) and second mesh electrode line (MEL2) being electrically connected to each other in the interface region (IR); wherein the first mesh electrode line (MEL1) in the interface region (IR) has a second line width (W2) no less than the first line width (W1); characterized in that the first mesh electrode line (MEL1) in the interface region (IR) is offset from the corresponding second mesh electrode line (MEL2); optionally, the first mesh electrode line (MEL1) in the interface region (IR) is offset from the corresponding second mesh electrode line (MEL2) by an offset width less than the first line width (W1).
A device for centring and guiding an aircraft turbine engine shaft, this device comprising: - an outer ring of a rolling bearing , this ring extending about a main axis (X) and comprising orifices arranged about this axis and oriented parallel to this axis, - an annular bearing support extending around the main axis (X) and at least partly around the ring , this support comprising orifices and openings arranged around this axis and oriented parallel to this axis, and - a series of studs for connecting the ring to the support, these studs being distributed around the main axis (X) and having axes of elongation (Y) substantially parallel to the main axis (X), each of these studs comprising a body comprising a first longitudinal end engaged in one of the orifices of the ring and a second longitudinal end engaged in one of the orifices of the support, the body of each of said studs passing through one of the openings of the support, characterised in that some of said studs , referred to as first studs , have their bodies passing through first openings with a first positive clearance and a second clearance of almost zero, said first clearance being oriented in at least a first direction (D1) radial with respect to said axis of elongation (Y), and said second clearance being oriented in at least one second direction (D2) radial with respect to said axis of elongation (Y), different from the first direction, said first and second clearances being configured so that the device has different amplitudes of displacement in at least two directions perpendicular to said main axis. - an outer ring of a rolling bearing , this ring extending about a main axis (X) and comprising orifices arranged about this axis and oriented parallel to this axis, - an annular bearing support extending around the main axis (X) and at least partly around the ring , this support comprising orifices and openings arranged around this axis and oriented parallel to this axis, and - a series of studs for connecting the ring to the support, these studs being distributed around the main axis (X) and having axes of elongation (Y) substantially parallel to the main axis (X), each of these studs comprising a body comprising a first longitudinal end engaged in one of the orifices of the ring and a second longitudinal end engaged in one of the orifices of the support, the body of each of said studs passing through one of the openings of the support,
A computer-implemented method for performing a computer vision task, the method comprising: inferring a context of a user or device, wherein the context comprises one or more of: motion, activity, environment or location, wherein the inferring of a context further comprises reading sensor data to infer the context of the user or the device, wherein the sensor data includes data from an accelerometer device sensor and/or a gyroscope device sensor ; configuring a computer-vision task according to the inferred context, wherein configuring the computer-vision task comprises adapting the number and type of image features utilized in the computer-vision task based on the inferred context; and performing the computer-vision task, wherein the computer-vision task comprises at least one of: a) a computer-vision-based mapping of an environment of the device utilizing the number and type of image features adapted based on the inferred context, b) a computer-vision-based localizing of the device or an object within the environment of the device utilizing the number and type of image features adapted based on the inferred context, or c) a computer-vision-based tracking of the device within the environment of the device utilizing the number and type of image features adapted based on the inferred context. inferring a context of a user or device, wherein the context comprises one or more of: motion, activity, environment or location, wherein the inferring of a context further comprises reading sensor data to infer the context of the user or the device, wherein the sensor data includes data from an accelerometer device sensor and/or a gyroscope device sensor ; configuring a computer-vision task according to the inferred context, wherein configuring the computer-vision task comprises adapting the number and type of image features utilized in the computer-vision task based on the inferred context; and performing the computer-vision task, wherein the computer-vision task comprises at least one of: a) a computer-vision-based mapping of an environment of the device utilizing the number and type of image features adapted based on the inferred context, b) a computer-vision-based localizing of the device or an object within the environment of the device utilizing the number and type of image features adapted based on the inferred context, or c) a computer-vision-based tracking of the device within the environment of the device utilizing the number and type of image features adapted based on the inferred context. a) a computer-vision-based mapping of an environment of the device utilizing the number and type of image features adapted based on the inferred context, b) a computer-vision-based localizing of the device or an object within the environment of the device utilizing the number and type of image features adapted based on the inferred context, or c) a computer-vision-based tracking of the device within the environment of the device utilizing the number and type of image features adapted based on the inferred context.