mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adjusting brake pressures (P) on wheel brakes of a motor vehicle , wherein a brake pressure (P) at the wheel brakes in a normal braking mode is adjusted as a function of a driver braking request determined by the driver of the motor vehicle , and wherein a brake control unit , for implementing at least one driving stability function and/or external braking requests , takes over the adjustment of the brake pressures (P) of the relevant wheel brake in a pressure control mode , and, at least during implementation of external braking requests , determines the brake pressures (P) with control of an ideal pressure distribution ratio of the brake pressures (P) at the wheel brakes of the front axle to the brake pressures (P) at the wheel brakes of a rear axle of the motor vehicle , wherein the control takes into account a pressure distribution ratio starting value which is determined in the normal braking mode and is stored and kept available for later consideration in the pressure control mode , wherein the pressure distribution ratio starting value is determined in the normal braking mode , in that - a first rotational speed measurement value of the front axle and a second rotational speed measurement value of the rear axle are detected, and a reference value of a movement variable of the motor vehicle is determined, - the rotational speed measurement value of the front axle and the rotational speed measurement value of the rear axle are each linked to the reference value in a manner representing the wheel slip (λ) at the corresponding axle , the first slip values formed in this way with respect to the front axle and the second slip values with respect to the rear axle are set in a ratio to one another, and the distribution index determined in this way is linked to a predefined pressure distribution ratio , wherein the pressure distribution ratio starting value is determined according to the following equation: (P FA /P RA ) = (λ RA /λ FA ) * (P FA /P RA ) nonideal , where the index "FA" in the equation represents a pressure and/or slip variable associated with the front axle and the index "RA" in the equation represents a pressure and/or slip variable associated with the rear axle, and (P FA /P RA ) nonideal represents a predefined pressure distribution ratio which is dynamically determined in the case of an electronic braking system (EBS). - a first rotational speed measurement value of the front axle and a second rotational speed measurement value of the rear axle are detected, and a reference value of a movement variable of the motor vehicle is determined, - the rotational speed measurement value of the front axle and the rotational speed measurement value of the rear axle are each linked to the reference value in a manner representing the wheel slip (λ) at the corresponding axle , the first slip values formed in this way with respect to the front axle and the second slip values with respect to the rear axle are set in a ratio to one another, and
A method of performing, by a User Equipment, UE, a measurement in a wireless communication system, the method comprising: receiving, by the UE, that is in a Radio Resource Control, RRC, connected mode, a measurement configuration from a network via a dedicated RRC message, wherein the measurement configuration is a minimization driving test, MDT, configuration, and includes a list of cell identifiers, IDs, for which one or more UEs are requested to perform a measurement logging while in an RRC idle mode; after receiving the measurement configuration and transitioning into the RRC idle mode, camping on a suitable cell; receiving system information from the network, wherein the system information includes a cell identifier, ID; comparing the cell identifier of the system information to the list of cell IDs of the measurement configuration; and performing, while in the RRC idle mode, the measurement logging when the cell indicated by the cell identifier of the system information is included within the list of cell IDs according to the comparing. receiving, by the UE, that is in a Radio Resource Control, RRC, connected mode, a measurement configuration from a network via a dedicated RRC message, wherein the measurement configuration is a minimization driving test, MDT, configuration, and includes a list of cell identifiers, IDs, for which one or more UEs are requested to perform a measurement logging while in an RRC idle mode; after receiving the measurement configuration and transitioning into the RRC idle mode, camping on a suitable cell; receiving system information from the network, wherein the system information includes a cell identifier, ID; comparing the cell identifier of the system information to the list of cell IDs of the measurement configuration; and performing, while in the RRC idle mode, the measurement logging when the cell indicated by the cell identifier of the system information is included within the list of cell IDs according to the comparing.
An access control system comprising an access controller, the access controller comprising: an access control memory; an access control processor in operable communication with the access control memory, the access control processor configured to perform access control steps which include (a) receiving a request by a requestor for access to a supplementary asset, (b) determining that the supplementary asset is related to a primary asset, (c) verifying that the request identifies or contains a proof of access to the primary asset, wherein a verification result of the verifying indicates whether the requestor has access to the primary asset based on finding present in the request a secret that is deemed available only to authorized users of the primary asset, wherein the secret includes at least one of a hash of a portion or all of the primary asset, at least a portion of the primary asset, at least a portion or a hash based on at least a portion of a repository metadata, at least a portion or a hash based on at least a portion of a repository commit history; and (d) granting the access request based on a determination result of the determining step and on a verification result of the verifying step; whereby the system provides an increase in available access to the supplementary asset without conditioning the increase on any identity of the requestor. an access control memory; an access control processor in operable communication with the access control memory, the access control processor configured to perform access control steps which include (a) receiving a request by a requestor for access to a supplementary asset, (b) determining that the supplementary asset is related to a primary asset, (c) verifying that the request identifies or contains a proof of access to the primary asset, wherein a verification result of the verifying indicates whether the requestor has access to the primary asset based on finding present in the request a secret that is deemed available only to authorized users of the primary asset, wherein the secret includes at least one of a hash of a portion or all of the primary asset, at least a portion of the primary asset, at least a portion or a hash based on at least a portion of a repository metadata, at least a portion or a hash based on at least a portion of a repository commit history; and (d) granting the access request based on a determination result of the determining step and on a verification result of the verifying step; whereby the system provides an increase in available access to the supplementary asset without conditioning the increase on any identity of the requestor.
A medical check valve for use in a medical device to provide one-way fluid flow between a first fluid location and a second fluid location, said check valve comprising: a flexible diaphragm comprising a top surface , a bottom surface , and a side wall between the top surface and the bottom surface ; characterised in that a first support member extends from the bottom surface of the flexible diaphragm and a second support member extends from the bottom surface of the flexible diaphragm , the first support member and second support member positioned to define a line of symmetry that bisects the bottom surface without passing through the first support member or the second support member ; wherein the flexible diaphragm has a first position in which the top surface is generally planar and is configured to seal against a fluid opening and a second position in which the top surface of the diaphragm is curved around the line of symmetry and is configured to be displaced from the fluid opening. a flexible diaphragm comprising a top surface , a bottom surface , and a side wall between the top surface and the bottom surface ; characterised in that a first support member extends from the bottom surface of the flexible diaphragm and a second support member extends from the bottom surface of the flexible diaphragm , the first support member and second support member positioned to define a line of symmetry that bisects the bottom surface without passing through the first support member or the second support member ; wherein the flexible diaphragm has a first position in which the top surface is generally planar and is configured to seal against a fluid opening and a second position in which the top surface of the diaphragm is curved around the line of symmetry and is configured to be displaced from the fluid opening.
A fuel injector having an element made of polymer based composite material developed for preventing medium humidity and for providing sealing, characterized in that said composite material comprises wood chip powder to absorb the humidity in the medium, whereby the wood chip powder proportion is between 50% and 90% and the polymer material is a thermoplastic polymer material.
An apparatus for arranging rod-shaped articles to be fed into pockets on an endless conveyor operable to travel in a conveyance direction, the apparatus comprising: a hopper operable to receive rod-shaped articles and to arrange the rod-shaped articles to be fed into the pockets on the endless conveyor; a main feeder positioned vertically above the hopper and operable to feed a mass flow of first rod-shaped articles downwards into the hopper ; characterised in that the apparatus comprises a lateral feeder spaced laterally from the hopper in the conveyance direction, wherein the lateral feeder is connected to a feeding tube (F) terminating in a feeding outlet, wherein the feeding tube (F) is operable to feed second rod-shaped articles into the apparatus via the feeding outlet. a hopper operable to receive rod-shaped articles and to arrange the rod-shaped articles to be fed into the pockets on the endless conveyor; a main feeder positioned vertically above the hopper and operable to feed a mass flow of first rod-shaped articles downwards into the hopper ; characterised in that the apparatus comprises a lateral feeder spaced laterally from the hopper in the conveyance direction, wherein the lateral feeder is connected to a feeding tube (F) terminating in a feeding outlet, wherein the feeding tube (F) is operable to feed second rod-shaped articles into the apparatus via the feeding outlet.
Paenibacillus mucilaginosus strain Pm 2906 deposited in VKPM under number B-12259, used as a fertilizer and biological control agent for the prevention or treatment of fungal disease of plants.
A system for reducing underwater noise, comprising: a solid panel having a thickness at any given location on the panel and having two generally opposing faces of said panel ; a plurality of resonator cavities defined within said panel ; each resonator cavity having a closed end within said panel and an open end through which an interior of said resonator cavity is in fluid communication with surrounding of said panel ; each resonator cavity further defining a volume described by a geometry of said resonator cavity within said panel ; and each resonator cavity configured and arranged within said panel so as to have at least a portion of said volume of the resonator cavity disposed higher than said open end so as to be capable of trapping an amount of gas within the resonator cavity when said panel is submerged in a liquid and is in an orientation such that the faces of said panel are oriented in a generally vertical direction, the system being characterized in that : said volume or said geometry of each resonator cavity is designed according to a respective design depth of deployment of said resonator cavity in said liquid. a solid panel having a thickness at any given location on the panel and having two generally opposing faces of said panel ; a plurality of resonator cavities defined within said panel ; each resonator cavity having a closed end within said panel and an open end through which an interior of said resonator cavity is in fluid communication with surrounding of said panel ; each resonator cavity further defining a volume described by a geometry of said resonator cavity within said panel ; and each resonator cavity configured and arranged within said panel so as to have at least a portion of said volume of the resonator cavity disposed higher than said open end so as to be capable of trapping an amount of gas within the resonator cavity when said panel is submerged in a liquid and is in an orientation such that the faces of said panel are oriented in a generally vertical direction, the system being characterized in that : said volume or said geometry of each resonator cavity is designed according to a respective design depth of deployment of said resonator cavity in said liquid.
An optical fiber mass splice method, comprising: securing a fiber clamp to a fiber setting fixture , the fiber setting fixture comprising a fiber alignment block and a backstop , wherein a plurality of fiber grooves is defined in the fiber alignment block , and wherein the plurality of fiber grooves of the fiber setting fixture each extend along a lengthwise direction; inserting a plurality of optical fibers into the fiber setting fixture such that each of the plurality of optical fibers is disposed in one of the plurality of fiber grooves and contacts the backstop , wherein the plurality of optical fibers is inserted along the lengthwise direction until each of the plurality of optical fibers contacts the backstop ; loading, after the inserting step, each of the plurality of optical fibers into the fiber clamp ; clamping the plurality of optical fibers in the fiber clamp ; and transporting the loaded and clamped fiber clamp from the fiber setting fixture to a splicer. securing a fiber clamp to a fiber setting fixture , the fiber setting fixture comprising a fiber alignment block and a backstop , wherein a plurality of fiber grooves is defined in the fiber alignment block , and wherein the plurality of fiber grooves of the fiber setting fixture each extend along a lengthwise direction; inserting a plurality of optical fibers into the fiber setting fixture such that each of the plurality of optical fibers is disposed in one of the plurality of fiber grooves and contacts the backstop , wherein the plurality of optical fibers is inserted along the lengthwise direction until each of the plurality of optical fibers contacts the backstop ; loading, after the inserting step, each of the plurality of optical fibers into the fiber clamp ; clamping the plurality of optical fibers in the fiber clamp ; and transporting the loaded and clamped fiber clamp from the fiber setting fixture to a splicer.
A canopy assembly for a barrier defined by a first side and a second side , wherein the canopy assembly comprises: a cover assembly ; and a bracket assembly , coupled to the cover assembly , wherein the bracket assembly comprises: at least a first bracket for coupling the cover assembly to the first side of the barrier and at least a second bracket for coupling the cover assembly to the second side of the barrier , wherein each of the at least first and second brackets has a cavity dimensioned to receive, but not simultaneously, and laterally constrain a plurality of differently dimensioned barrier top rails or wall surfaces; characterized in that each cavity comprises at least three interior surfaces (S1, S2, S3), the first and second interior surfaces (S1, S2) meeting at a first angle (α 1 ) that is about 140°, the second and third interior surfaces (S2, S3) meeting at a second angle (α 2 ) that is less than 90°, and the first and third interior surfaces (S1, S3) forming an angle (α 3 ) that is between 30° - 80°. a cover assembly ; and a bracket assembly , coupled to the cover assembly , wherein the bracket assembly comprises: at least a first bracket for coupling the cover assembly to the first side of the barrier and at least a second bracket for coupling the cover assembly to the second side of the barrier , wherein each of the at least first and second brackets has a cavity dimensioned to receive, but not simultaneously, and laterally constrain a plurality of differently dimensioned barrier top rails or wall surfaces; characterized in that each cavity comprises at least three interior surfaces (S1, S2, S3), the first and second interior surfaces (S1, S2) meeting at a first angle (α 1 ) that is about 140°, the second and third interior surfaces (S2, S3) meeting at a second angle (α 2 ) that is less than 90°, and the first and third interior surfaces (S1, S3) forming an angle (α 3 ) that is between 30° - 80°. at least a first bracket for coupling the cover assembly to the first side of the barrier and at least a second bracket for coupling the cover assembly to the second side of the barrier , wherein each of the at least first and second brackets has a cavity dimensioned to receive, but not simultaneously, and laterally constrain a plurality of differently dimensioned barrier top rails or wall surfaces; characterized in that each cavity comprises at least three interior surfaces (S1, S2, S3), the first and second interior surfaces (S1, S2) meeting at a first angle (α 1 ) that is about 140°, the second and third interior surfaces (S2, S3) meeting at a second angle (α 2 ) that is less than 90°, and the first and third interior surfaces (S1, S3) forming an angle (α 3 ) that is between 30° - 80°.
A compound of Structural Formula I: or a pharmaceutically acceptable salt thereof, wherein: A is selected from the group consisting of a (C 1 -C 6 )alkyl, a (C 3 -C 12 )cycloalkyl, and a (C 5 -C 7 )heterocycloalkyl, wherein moiety A is optionally substituted with 1 to 4 R 2 groups and wherein "(C 5 -C 7 )heterocycloalkyl" refers to a 5- to 7-membered saturated aliphatic ring containing 1, 2, 3, 4 or 5 heteroatoms independently selected from N, O and S; R 20 , for each occurence independently, is -H or a (C 1 -C 3 ) alkyl; R 1 is -F, -Cl, -Br, or -I; R 2 for each occurence independently is -OH or a (C 1 -C 6 )alkyl; n is 1; and each m and p is independently 0, 1, 2, 3, or 4. A is selected from the group consisting of a (C 1 -C 6 )alkyl, a (C 3 -C 12 )cycloalkyl, and a (C 5 -C 7 )heterocycloalkyl, wherein moiety A is optionally substituted with 1 to 4 R 2 groups and wherein "(C 5 -C 7 )heterocycloalkyl" refers to a 5- to 7-membered saturated aliphatic ring containing 1, 2, 3, 4 or 5 heteroatoms independently selected from N, O and S; R 20 , for each occurence independently, is -H or a (C 1 -C 3 ) alkyl; R 1 is -F, -Cl, -Br, or -I; R 2 for each occurence independently is -OH or a (C 1 -C 6 )alkyl; n is 1; and each m and p is independently 0, 1, 2, 3, or 4.
An electrical component support bracket , comprising: a base member ; and a component support surface extending from the base member with an angled transition configured as a step between the base member and the component support surface , the step causing that the component support surface will be suspended at a distance from a mounting surface when the base member is secured to the mounting surface; and a component support member configured to surround at least a portion of an electrical component , the component support member including a first tab and a second tab disposed at opposite ends of the component support member , wherein the first tab and the second tab are configured to be coupled to the component support surface so that the electrical component is held against the component support surface by the component support member in use. a base member ; and a component support surface extending from the base member with an angled transition configured as a step between the base member and the component support surface , the step causing that the component support surface will be suspended at a distance from a mounting surface when the base member is secured to the mounting surface; and a component support member configured to surround at least a portion of an electrical component , the component support member including a first tab and a second tab disposed at opposite ends of the component support member , wherein the first tab and the second tab are configured to be coupled to the component support surface so that the electrical component is held against the component support surface by the component support member in use.
System for deploying a vascular bypass prosthesis comprising at least one stent , with an end portion to be introduced into a vessel and to connect it there, comprising a sheath designed to be introduced into the vessel and comprising a first expansible balloon for shaping and stabilising the prosthesis in the vessel and a second expansible balloon for sealing the junction between said end portion of the prosthesis and the vessel, the system further comprising means for expanding the balloons , characterised in that the first expansible balloon is formed from a deformable biocompatible polymer material and the second expansible balloon is formed from a non-deformable biocompatible polymer material.
A laser speed measuring method, characterized in comprising the steps of: acquiring detection data within a predetermined detection angle range in a plurality of paralleled horizontal planes having different heights, from a plurality of laser rays detected towards a road extending direction in the horizontal plane ; acquiring three-dimensional point cloud data according to the detection data ; determining a position of a measured object in the road extending direction according to the three-dimensional point cloud data ; and determining a speed of the measured object according to the position change of the measured object along the road extending direction at different timing . acquiring detection data within a predetermined detection angle range in a plurality of paralleled horizontal planes having different heights, from a plurality of laser rays detected towards a road extending direction in the horizontal plane ; acquiring three-dimensional point cloud data according to the detection data ; determining a position of a measured object in the road extending direction according to the three-dimensional point cloud data ; and determining a speed of the measured object according to the position change of the measured object along the road extending direction at different timing .