mhurhangee/patent-ind-claim-en huggingface dataset:
Anti-spasticity leg brace comprising a flexible and elastic shell with a leg section and a foot section extending from the leg section, characterised in that the leg section has a tubular shape and the leg section and the foot section are made of a single piece made from a single material block, wherein the single piece is a material of 15 to 25 N/mm 2 elasticity.
A primary radio communications device (T1; T2), especially a terminal, for a radio communications network , the primary radio communications device (T1; T2) including a processor (Pr) being configured to: - determine (100; 200) a primary preamble sequence (ps1; ps1a; ps1b) with a first sequence property, - determine (102; 202) a secondary preamble sequence (ps2; ps2a; ps2b) with a second sequence property associated with the first sequence property, wherein the second sequence property of the secondary preamble sequence (ps2) is mathematically relaxed with respect to the first sequence property of the primary preamble sequence (ps1) regarding the capability to derive accurate frequency- and/or time-offsets of a preamble (p; pa; pb), and wherein the secondary preamble sequence (ps2) is shorter than the primary preamble sequence (ps1); and including a transceiver (Tr) being configured to: - transmit (104; 204) the preamble (p; pa; pb) comprising the primary preamble sequence (ps1; ps1a; ps1b) and the secondary preamble sequence (ps2; ps2a; ps2b) to a secondary radio communications device (BS), especially a base station. - determine (100; 200) a primary preamble sequence (ps1; ps1a; ps1b) with a first sequence property, - determine (102; 202) a secondary preamble sequence (ps2; ps2a; ps2b) with a second sequence property associated with the first sequence property, wherein the second sequence property of the secondary preamble sequence (ps2) is mathematically relaxed with respect to the first sequence property of the primary preamble sequence (ps1) regarding the capability to derive accurate frequency- and/or time-offsets of a preamble (p; pa; pb), and wherein the secondary preamble sequence (ps2) is shorter than the primary preamble sequence (ps1); and - transmit (104; 204) the preamble (p; pa; pb) comprising the primary preamble sequence (ps1; ps1a; ps1b) and the secondary preamble sequence (ps2; ps2a; ps2b) to a secondary radio communications device (BS), especially a base station.
A nickel-cobalt-manganese composite hydroxide represented by a general formula: Ni 1-x-y-z Co x Mn y M z (OH) 2 (0 < x ≤ 1/3, 0 < y ≤ 1/3, 0 ≤ z ≤ 0.1, M represents one or more elements selected from Mg, Al, Ca, Ti, V, Cr, Zr, Nb, Mo, and W), to serve as a precursor for a positive electrode active material of a non-aqueous electrolyte secondary battery, wherein the nickel-cobalt-manganese composite hydroxide has a specific surface area of 3.0 to 11.0 m 2 /g as measured by a BET method through nitrogen adsorption, and an average valence of 2.4 or more for Co and Mn as obtained by redox titration.
An article comprising multiple layers, wherein each layer is mechanically coupled with adjacent layers of the article, wherein the article has an impact side that is adapted to receive a blast and an asset side that is opposite the impact side and is adapted to face the asset to be protected, and wherein, from the impact side to the asset side, each successive layer has a density that is greater than a density of the adjacent layer that is closer to the impact side wherein the article comprises one or more layers comprising rubber, wherein the rubber is neoprene, one or more layers comprising metal foam, and one or more layers comprising a ceramic composite, wherein the ceramic composite is concrete. multiple layers, wherein each layer is mechanically coupled with adjacent layers of the article, wherein the article has an impact side that is adapted to receive a blast and an asset side that is opposite the impact side and is adapted to face the asset to be protected, and wherein, from the impact side to the asset side, each successive layer has a density that is greater than a density of the adjacent layer that is closer to the impact side wherein the article comprises one or more layers comprising rubber, wherein the rubber is neoprene, one or more layers comprising metal foam, and one or more layers comprising a ceramic composite, wherein the ceramic composite is concrete.
A method for creating a morphing animation of a change to a visualization, comprising: taking an initial snapshot of geometries comprising the visualization before the change; after receiving a modification to the visualization, taking one or more intermediate snapshots of the geometries comprising the visualization during the change; taking a final snapshot of the geometries comprising the visualization after the change; caching the initial snapshot, the one or more intermediate snapshots and the final snapshot; interpreting the cached snapshots to create merged geometries, wherein the merged geometries represent transitional states between the cached snapshots; synthesizing a plurality of frames renderable as static images to comprise the morphing animation, wherein the frames are generated based on the merged geometries, and wherein generating the plurality of frames further comprises receiving a timing curve specifying a rate at which the merged geometries illustrate the change from the initial geometry to the final geometry in the morphing animation and specifying as well positional and non-positional properties of various elements at a given point in the duration of the animation and the plurality of frames does not include a frame corresponding to the initial snapshot; and transmitting the plurality of frames to a client to be rendered in the visualization, thereby providing the morphing animation of the change to the visualization. taking an initial snapshot of geometries comprising the visualization before the change; after receiving a modification to the visualization, taking one or more intermediate snapshots of the geometries comprising the visualization during the change; taking a final snapshot of the geometries comprising the visualization after the change; caching the initial snapshot, the one or more intermediate snapshots and the final snapshot; interpreting the cached snapshots to create merged geometries, wherein the merged geometries represent transitional states between the cached snapshots; synthesizing a plurality of frames renderable as static images to comprise the morphing animation, wherein the frames are generated based on the merged geometries, and wherein generating the plurality of frames further comprises receiving a timing curve specifying a rate at which the merged geometries illustrate the change from the initial geometry to the final geometry in the morphing animation and specifying as well positional and non-positional properties of various elements at a given point in the duration of the animation and the plurality of frames does not include a frame corresponding to the initial snapshot; and transmitting the plurality of frames to a client to be rendered in the visualization, thereby providing the morphing animation of the change to the visualization.
A smart wearable device , wherein the smart wearable device comprises a detection apparatus and a case , the detection apparatus specifically comprises one set of measuring parts and a plurality of sets of light emitting parts ; the one set of measuring parts and the plurality of sets of light emitting parts are inlaid into the case and arranged into a polygon, wherein each of the plurality of sets of light emitting parts and the one set of measuring parts each occupies one of a plurality of angles of the polygon, and a central position of the polygon is at a specified distance to each angle of the polygon, wherein the plurality of sets of light emitting parts comprise a first set of light emitting parts and a second set of light emitting parts, the first set of light emitting parts and the second set of light emitting parts are adjacent to the one set of measuring parts, the first set of light emitting parts and the second set of light emitting parts are configured to send light for detecting heart rate, characterized in that the smart wearable device comprises in addition a third set of light emitting parts, the third set of light emitting parts are opposite to the one set of measuring parts, and the third set of light emitting parts are adjacent to the first set of light emitting parts and the second set of light emitting parts; the first set of light emitting parts and the second set of light emitting parts are configured to send green light; and the third set of light emitting parts is configured to send red light and/or infrared light for detecting blood oxygen. wherein the plurality of sets of light emitting parts comprise a first set of light emitting parts and a second set of light emitting parts, the first set of light emitting parts and the second set of light emitting parts are adjacent to the one set of measuring parts, the first set of light emitting parts and the second set of light emitting parts are configured to send light for detecting heart rate, characterized in that the smart wearable device comprises in addition a third set of light emitting parts, the third set of light emitting parts are opposite to the one set of measuring parts, and the third set of light emitting parts are adjacent to the first set of light emitting parts and the second set of light emitting parts; the first set of light emitting parts and the second set of light emitting parts are configured to send green light; and the third set of light emitting parts is configured to send red light and/or infrared light for detecting blood oxygen.
Valve, comprising: a valve seat including a seat body defining a stem channel and a sealing element ; a valve stem having a stem body sized and configured for insertion into the stem channel, the stem body having a proximal end , a distal end , and a surface extending therebetween, wherein the stem body defines a channel extending from the proximal end to the distal end , and wherein the stem body defines at least one opening extending through the surface to the channel ; and a coupling element (18;18a) formed over at least a portion of the surface of the valve stem and configured to provide advancement of the valve stem within the stem channel in a distal direction, to position the valve stem in a first, closed position, or in a proximal direction to position the valve stem in a second, open position, wherein the at least one opening extends through the surface of the channel such that the at least one opening is positioned on an opposite side of the sealing element from the proximal end of the valve stem when the valve stem is positioned in the first position characterized by a plunger positioned within the channel and moveable between a first position and a second position, wherein the plunger is configured to seal the proximal end of the stem channel in a first position and allow airflow from a proximal opening of the channel and the at least one opening formed through the surface of the stem body in a second position; and a biasing element configured to apply a biasing force to the plunger . a valve seat including a seat body defining a stem channel and a sealing element ; a valve stem having a stem body sized and configured for insertion into the stem channel, the stem body having a proximal end , a distal end , and a surface extending therebetween, wherein the stem body defines a channel extending from the proximal end to the distal end , and wherein the stem body defines at least one opening extending through the surface to the channel ; and a coupling element (18;18a) formed over at least a portion of the surface of the valve stem and configured to provide advancement of the valve stem within the stem channel in a distal direction, to position the valve stem in a first, closed position, or in a proximal direction to position the valve stem in a second, open position, wherein the at least one opening extends through the surface of the channel such that the at least one opening is positioned on an opposite side of the sealing element from the proximal end of the valve stem when the valve stem is positioned in the first position characterized by a plunger positioned within the channel and moveable between a first position and a second position, wherein the plunger is configured to seal the proximal end of the stem channel in a first position and allow airflow from a proximal opening of the channel and the at least one opening formed through the surface of the stem body in a second position; and a biasing element configured to apply a biasing force to the plunger .
An applicator configured to apply a liquid, comprising: a liquid path extending from an inlet of the applicator to an outlet of the applicator ; a trigger with a first opening and a second opening on the opposite site of the trigger from the first opening , wherein the trigger is configured to, when actuated, allow a received liquid to flow through the entirety of the fluid path; and a trigger locking device configured to slide between a locked position and an unlocked position, wherein the locked position comprises the trigger locking device positioned such that it substantially inhibits actuation of the trigger , wherein a first end of the trigger locking device extends through the first opening and a second end of the trigger locking device extends through the second opening , and wherein, when the trigger is actuated, a first rim of the first opening is configured to push against the first end of the trigger locking device and a second rim of the second opening is configured to push against the second end of the trigger locking device . a liquid path extending from an inlet of the applicator to an outlet of the applicator ; a trigger with a first opening and a second opening on the opposite site of the trigger from the first opening , wherein the trigger is configured to, when actuated, allow a received liquid to flow through the entirety of the fluid path; and a trigger locking device configured to slide between a locked position and an unlocked position, wherein the locked position comprises the trigger locking device positioned such that it substantially inhibits actuation of the trigger , wherein a first end of the trigger locking device extends through the first opening and a second end of the trigger locking device extends through the second opening , and wherein, when the trigger is actuated, a first rim of the first opening is configured to push against the first end of the trigger locking device and a second rim of the second opening is configured to push against the second end of the trigger locking device .
Vertical take-off and landing, VTOL, aircraft , comprising: a fuselage supporting two main wings between its nose and its tail , a first group of propulsion units mounted fixedly on the aircraft in a vertical thrust generating configuration, and a second group of propulsion units each of which is mounted on the aircraft configurable between a vertical thrust generating configuration and a horizontal thrust generating configuration, wherein the first group is subdivided into two front sets and a rear set , each of said front and rear sets including at least one propulsion unit , and the two front sets are mounted at opposite sides of the fuselage ahead of the main wings , characterized in that the rear set is mounted in the fuselage , passing therethrough, abaft the main wings , the second group is subdivided into a wing set and a tail set , each of said wing and tail sets including at least two propulsion units , the at least two propulsion units of the wing set are mounted at opposite tips of the main wings , and the at least two propulsion units of the tail set are mounted at opposite sides of the fuselage abaft the main wings . a fuselage supporting two main wings between its nose and its tail , a first group of propulsion units mounted fixedly on the aircraft in a vertical thrust generating configuration, and a second group of propulsion units each of which is mounted on the aircraft configurable between a vertical thrust generating configuration and a horizontal thrust generating configuration, wherein the first group is subdivided into two front sets and a rear set , each of said front and rear sets including at least one propulsion unit , and the two front sets are mounted at opposite sides of the fuselage ahead of the main wings , characterized in that the rear set is mounted in the fuselage , passing therethrough, abaft the main wings , the second group is subdivided into a wing set and a tail set , each of said wing and tail sets including at least two propulsion units , the at least two propulsion units of the wing set are mounted at opposite tips of the main wings , and the at least two propulsion units of the tail set are mounted at opposite sides of the fuselage abaft the main wings .
A transverse internal gear pump, comprising: a trochoid , in which an inner rotor having a plurality of outer teeth is rotatably accommodated within an outer rotor having a plurality of inner teeth, the inner rotor being rotatably accommodated within the outer rotor in an eccentric state and with the outer teeth and the inner teeth meshing, and in which an intake-side volume chamber for taking in a liquid and an ejection-side volume chamber for ejecting liquid taken into the intake-side volume chamber are formed between the inner teeth and the outer teeth; a liquid intake nozzle extending in a non-perpendicular direction with respect to the trochoid rotation surfaces, the liquid intake nozzle having a distal end immersed in a liquid reservoir of the liquid, and forming part of a passage via which the liquid communicates with the intake-side volume chamber; and an intake cover having the liquid intake nozzle being secured to the pump casing , and the liquid intake nozzle and the intake cover being integrally molded by the injection molding of a resin composition, wherein the transverse internal gear pump has a plastic pump casing in which a recessed portion for accommodating the trochoid is formed, and a pump cover for closing off the pump casing ; and wherein a port linking the liquid intake nozzle interior and a space in the interior of the intake cover is disposed in a location that, when the pump is installed, is above a vertically central portion of the space in the interior of the intake cover . a trochoid , in which an inner rotor having a plurality of outer teeth is rotatably accommodated within an outer rotor having a plurality of inner teeth, the inner rotor being rotatably accommodated within the outer rotor in an eccentric state and with the outer teeth and the inner teeth meshing, and in which an intake-side volume chamber for taking in a liquid and an ejection-side volume chamber for ejecting liquid taken into the intake-side volume chamber are formed between the inner teeth and the outer teeth; a liquid intake nozzle extending in a non-perpendicular direction with respect to the trochoid rotation surfaces, the liquid intake nozzle having a distal end immersed in a liquid reservoir of the liquid, and forming part of a passage via which the liquid communicates with the intake-side volume chamber; and an intake cover having the liquid intake nozzle being secured to the pump casing , and the liquid intake nozzle and the intake cover being integrally molded by the injection molding of a resin composition, wherein the transverse internal gear pump has a plastic pump casing in which a recessed portion for accommodating the trochoid is formed, and a pump cover for closing off the pump casing ; and wherein a port linking the liquid intake nozzle interior and a space in the interior of the intake cover is disposed in a location that, when the pump is installed, is above a vertically central portion of the space in the interior of the intake cover .
An apparatus comprising: a Universal Flash Storage, UFS, memory device communicatively couplable to a host device , wherein the UFS memory device is configured to support two or more power modes, wherein the two or more power modes comprise: a first power mode entered with a command from the host device with a first power condition, wherein the UFS memory device in the first power mode is responsive to at least a subset of commands received from the host device; and a second power mode entered with the command from the host device with a second power condition, wherein the UFS memory device in the second power mode is not responsive to any commands received from the host device and wherein the UFS memory device is configured to exit the second power mode based on a power cycle or a hardware reset signal. a first power mode entered with a command from the host device with a first power condition, wherein the UFS memory device in the first power mode is responsive to at least a subset of commands received from the host device; and a second power mode entered with the command from the host device with a second power condition, wherein the UFS memory device in the second power mode is not responsive to any commands received from the host device and wherein the UFS memory device is configured to exit the second power mode based on a power cycle or a hardware reset signal.
A damping system for a mobile mass of a MEMS device , the system being capable of preventing direct contact between the mass and a surface element of the MEMS device , the mass being mobile in translation relative to the surface element along a first direction (D 1 ), the damping system comprising: - a mechanical stopper having elastic properties, positioned between the mass and the surface element , the stopper being oriented in a second direction when it is in a rest position (PB R ), - a system for locking/unlocking the stopper , the damping system being characterised in that the locking/unlocking system comprises: - a branch oriented towards the stopper , comprising a blocking end , - a pivot link capable of pivoting the branch about an axis (A) of rotation substantially perpendicular to the first direction (D 1 ) and to the second direction, the locking/unlocking system defining the following two positions of the mass along the first direction of translation (D 1 ): - a central position (PM C ) of the mass , the mass being biased in said central position (PM C ) by return means , each linked to the mass and to a structure of the MEMS device fixed relative to the surface element , - a first extreme position (PM 1 ) where the mass is brought closer to the surface element relative to its central position (PM C ), the stopper then being pressed towards the surface element in a locked position (PB V ), the branch being configured to block the stopper in this locked position (PB V ) by its blocking end , the locking/unlocking system being able to rotate about the pivot link , to a position where the stopper is not held in the locked position (PB v ). - a mechanical stopper having elastic properties, positioned between the mass and the surface element , - a system for locking/unlocking the stopper , - a branch oriented towards the stopper , comprising a blocking end , - a pivot link capable of pivoting the branch about an axis (A) of rotation substantially perpendicular to the first direction (D 1 ) and to the second direction, - a central position (PM C ) of the mass , the mass being biased in said central position (PM C ) by return means , each linked to the mass and to a structure of the MEMS device fixed relative to the surface element , - a first extreme position (PM 1 ) where the mass is brought closer to the surface element relative to its central position (PM C ), the stopper then being pressed towards the surface element in a locked position (PB V ), the branch being configured to block the stopper in this locked position (PB V ) by its blocking end ,