mhurhangee/ep-ind-claims huggingface dataset:
A genetically engineered Pichinde virus comprising: three ambisense genomic segments, wherein the first genomic segment comprises a coding region encoding a Z protein and a coding region encoding a L RdRp protein, wherein the second genomic segment comprises a coding region encoding a nucleoprotein and a first restriction enzyme site, and wherein the third genomic segment comprises a coding region encoding a glycoprotein and a second restriction enzyme site; and wherein the NP protein comprises an amino acid sequence having at least 80% identity to SEQ ID NO:3. wherein the first genomic segment comprises a coding region encoding a Z protein and a coding region encoding a L RdRp protein, wherein the second genomic segment comprises a coding region encoding a nucleoprotein and a first restriction enzyme site, and wherein the third genomic segment comprises a coding region encoding a glycoprotein and a second restriction enzyme site; and wherein the NP protein comprises an amino acid sequence having at least 80% identity to SEQ ID NO:3.
System for calibrating load sensors, comprising: an aerofoil or control surface of an aircraft; a plurality of N load sensors (2-1,..., 2-N) which are provided at at least one load cross-section of the aerofoil or control surface of the aircraft, the plurality of N load sensors (2-1,..., 2-N) being calibrated on the basis of N load coefficients (α i) of the plurality of N load sensors (2-1,..., 2-N); a calculation unit configured to evaluate a linear system of equations formed by means of mechanical loading of the aerofoil or control surface in a plurality of N loading measurements with preset mechanical transverse forces which act substantially perpendicularly on the aerofoil or control surface; and a summer configured to sum all N force signals measured by the plurality of N load sensors (2-1,..., 2-N) and to feed an output signal to the calculation unit, wherein, during the plurality of N loading measurements, the aerofoil or control surface is continuously loaded with a preset transverse load profile which is caused for each of the N loading measurements by a corresponding flight manoeuvre of the aircraft located in the air in order to determine the N load coefficients (α i) of the plurality of N load sensors (2-1,..., 2-N). an aerofoil or control surface of an aircraft; a plurality of N load sensors (2-1,..., 2-N) which are provided at at least one load cross-section of the aerofoil or control surface of the aircraft, the plurality of N load sensors (2-1,..., 2-N) being calibrated on the basis of N load coefficients (α i) of the plurality of N load sensors (2-1,..., 2-N); a calculation unit configured to evaluate a linear system of equations formed by means of mechanical loading of the aerofoil or control surface in a plurality of N loading measurements with preset mechanical transverse forces which act substantially perpendicularly on the aerofoil or control surface; and a summer configured to sum all N force signals measured by the plurality of N load sensors (2-1,..., 2-N) and to feed an output signal to the calculation unit, wherein, during the plurality of N loading measurements, the aerofoil or control surface is continuously loaded with a preset transverse load profile which is caused for each of the N loading measurements by a corresponding flight manoeuvre of the aircraft located in the air in order to determine the N load coefficients (α i) of the plurality of N load sensors (2-1,..., 2-N).
Protection device for protecting a piece of ground, comprising: - a mobile crane equipped with a boom; - a jib articulated on the boom point (12 1) at the head of the boom, the jib extending longitudinally along a longitudinal axis (Ox); - a transverse jib strut fixed to the jib, the assembly formed by the strut and jib forming a framework; characterized in that it comprises: - a first net attached to the framework and configured to be unfurled so as to protect the ground by placing itself between the ground and items able to fall from a position located above the protection device; and - a second net attached to the framework so that it is arranged underneath the first net, and in that the first net and the second net have a first mesh and a second mesh, the dimensions of the first mesh being larger than the dimensions of the second mesh. - a mobile crane equipped with a boom; - a jib articulated on the boom point (12 1) at the head of the boom, the jib extending longitudinally along a longitudinal axis (Ox); - a transverse jib strut fixed to the jib, the assembly formed by the strut and jib forming a framework; - a first net attached to the framework and configured to be unfurled so as to protect the ground by placing itself between the ground and items able to fall from a position located above the protection device; and - a second net attached to the framework so that it is arranged underneath the first net, and in that the first net and the second net have a first mesh and a second mesh, the dimensions of the first mesh being larger than the dimensions of the second mesh.
A component holder for an automatic or semi-automatic preparation system for forming a medicament solution from a vial containing one of a liquid and a non-liquid material, the component holder comprising: a gripper including: a first pair of fixed, spaced apart jaws, the first pair of jaws including a first jaw and a second jaw; and a second pair of fixed, spaced apart jaws, the second pair of jaws including a first jaw and a second jaw; wherein the first pair of jaws is translatable relative to the second pair of jaws; and wherein the second jaw of the first pair of jaws is interposed between the second pair of jaws, and the first jaw of the second pair of jaws is interposed between the first pair of jaws. a gripper including: a first pair of fixed, spaced apart jaws, the first pair of jaws including a first jaw and a second jaw; and a second pair of fixed, spaced apart jaws, the second pair of jaws including a first jaw and a second jaw; a first pair of fixed, spaced apart jaws, the first pair of jaws including a first jaw and a second jaw; and a second pair of fixed, spaced apart jaws, the second pair of jaws including a first jaw and a second jaw; wherein the first pair of jaws is translatable relative to the second pair of jaws; and wherein the second jaw of the first pair of jaws is interposed between the second pair of jaws, and the first jaw of the second pair of jaws is interposed between the first pair of jaws.
A compound having the structure of: N-(2,6-difluorobenzyl)-5-(1-ethyl-3-(thiazol-2-yl)-1H-pyrazol-5-yl)pyrimidin-2-amine, or a pharmaceutically acceptable salt thereof. N-(2,6-difluorobenzyl)-5-(1-ethyl-3-(thiazol-2-yl)-1H-pyrazol-5-yl)pyrimidin-2-amine, or a pharmaceutically acceptable salt thereof.
An obtaining device provided in a tire cavity region for obtaining tire information related to a condition of a tire, the obtaining device comprising: a sensor that detects a condition of gas filling the tire cavity region as tire information; a tire valve that ventilates the tire cavity region with the atmosphere outside of the tire; and a housing that includes an internal space for containing the sensor in a state of being compartmentalized from the tire cavity region, a ventilation hole that allows communication between the internal space and the tire cavity region, and a communication hole that is connected with an opening part at an end portion on the tire cavity region side of the tire valve and that allows communication between the opening part of the tire valve and the tire cavity region, the diameter of the communication hole and the inner diameter of the tire valve having a minimum value of not less than 2.5 mm, and the ventilation hole being provided at a position outside a range of less than 140° of the angle of view from a center position corresponding to the position of an opening of the communication hole with respect to a central direction aligned with the direction of extension of the communication hole from the opening of the communication hole at the end portion on the tire cavity region side, characterised in that a step is provided that protrudes from the inner wall surface of an inner wall of the valve so that the hole cross-sectional area of the tire valve gradually increases from the opening part toward an external opening part at an end portion of the tire valve on the tire exterior portion side, and the height of the step is 1 mm or less. a sensor that detects a condition of gas filling the tire cavity region as tire information; a tire valve that ventilates the tire cavity region with the atmosphere outside of the tire; and
Blade arrangement, with a number of blades (25, 27), a number of plate-shaped elements, a number of intermediate pieces, a blade carrier and with a holding groove which is arranged therein and which has on its side walls longitudinally extending projections for the formation of undercuts, and in which the number of blades (25, 27) for forming a blade ring of a turbomachine are inserted, each blade (25, 27) having in addition to an airfoil, for fastening, a blade root engaging into the undercuts and being pressed against the projections by in each case a plate-shaped element arranged between a blade root underside and a groove bottom of the holding groove and having at least one bead (52, 55), characterized in that each element is covered in the longitudinal direction of the holding groove only partially by the blade root pressed down by said element and in that an intermediate piece is inserted in the holding groove between two blades (25, 27) and is pressed against the projections by that part of the element which is not covered by the blade root.
An inhibitor of an amino acid transporter for use in promoting remyelination of neurons in the central nervous system in a condition marked by enhanced inflammation in the CNS and demyelination of neurons of a subject; wherein the inhibitor inhibits an amino acid transporter in microglia; and wherein the amino acid transporter is Slc7a5 or large amino acid transporter small subunit 1. wherein the inhibitor inhibits an amino acid transporter in microglia; and wherein the amino acid transporter is Slc7a5 or large amino acid transporter small subunit 1.
A sterilization system comprising: a chamber module (510, 1000); and an independent pump module (530, 1100) that is external to the chamber module (510, 1000) in an independent form, is connected to the chamber module (510, 1000), and has a built-in pump, wherein the chamber module (510, 1000) comprises: a chamber (511, 1010) built in the chamber module (510, 1000) and storing a target object; and a vaporizer (514, 1032) built in the chamber module (510, 1000), placed outside of the chamber (511, 1010), and connected to the chamber to supply a vaporized sterilant to the chamber (511, 1010), wherein the chamber (511, 1010) built in the chamber module (510, 1000) is connected to the built-in pump and exhausted, wherein the chamber module (510, 1000) is separated from the independent pump module (530, 1100) by a chamber housing of the chamber module (510, 1000), and wherein the chamber (511, 1010) and the vaporizer (514, 1032) are placed inside the chamber housing of the chamber module (510, 1000) such that extracting a sterilant from a sterilant container and vaporizing the extracted sterilant are performed inside the chamber housing. a chamber module (510, 1000); and an independent pump module (530, 1100) that is external to the chamber module (510, 1000) in an independent form, is connected to the chamber module (510, 1000), and has a built-in pump, wherein the chamber module (510, 1000) comprises: a chamber (511, 1010) built in the chamber module (510, 1000) and storing a target object; and a vaporizer (514, 1032) built in the chamber module (510, 1000), placed outside of the chamber (511, 1010), and connected to the chamber to supply a vaporized sterilant to the chamber (511, 1010), wherein the chamber (511, 1010) built in the chamber module (510, 1000) is connected to the built-in pump and exhausted, wherein the chamber module (510, 1000) is separated from the independent pump module (530, 1100) by a chamber housing of the chamber module (510, 1000), and wherein the chamber (511, 1010) and the vaporizer (514, 1032) are placed inside the chamber housing of the chamber module (510, 1000) such that extracting a sterilant from a sterilant container and vaporizing the extracted sterilant are performed inside the chamber housing. a chamber (511, 1010) built in the chamber module (510, 1000) and storing a target object; and a vaporizer (514, 1032) built in the chamber module (510, 1000), placed outside of the chamber (511, 1010), and connected to the chamber to supply a vaporized sterilant to the chamber (511, 1010), wherein the chamber (511, 1010) built in the chamber module (510, 1000) is connected to the built-in pump and exhausted, wherein the chamber module (510, 1000) is separated from the independent pump module (530, 1100) by a chamber housing of the chamber module (510, 1000), and wherein the chamber (511, 1010) and the vaporizer (514, 1032) are placed inside the chamber housing of the chamber module (510, 1000) such that extracting a sterilant from a sterilant container and vaporizing the extracted sterilant are performed inside the chamber housing.
A polymeric composition comprising a polymer derived from hyaluronic acid having crosslinked units together forming at least one of the following groups of formula, II) or: each group being in neutral or salt form, and wherein L is a hydrocarbon chain having 2 to 10 carbon atoms and optionally interrupted by one or more groups -O- or - NH-.
Use of a glass vial having a total volume of < 4.5 ml, made of a multicomponent glass, wherein the inner wall of the glass vial has a chemical resistance to the leaching of at least one of the constituent parts of the multicomponent glass, wherein in case of leaching of the glass vial with an aqueous liquid having a pH value in the range of 5 to 9 at a temperature of 40°C over a period of 24 weeks when the glass vial is stored standing upright, the ratio of the concentration of at least one leached-out constituent part at a fill volume of 0.5 ml to the concentration at a fill volume of 2 ml is a maximum of 3, and the ratio between the concentration at a fill volume of 1 ml and the concentration at a fill volume of 2 ml is a maximum of 2, for filling with a liquid pharmaceutical preparation up to a filling level of a maximum of 0.25. in case of leaching of the glass vial with an aqueous liquid having a pH value in the range of 5 to 9 at a temperature of 40°C over a period of 24 weeks when the glass vial is stored standing upright, the ratio of the concentration of at least one leached-out constituent part at a fill volume of 0.5 ml to the concentration at a fill volume of 2 ml is a maximum of 3, and the ratio between the concentration at a fill volume of 1 ml and the concentration at a fill volume of 2 ml is a maximum of 2, for filling with a liquid pharmaceutical preparation up to a filling level of a maximum of 0.25.
An obstacle detection method for a system mountable in a vehicle, the system including a camera and a processor attached to said camera, the method including the steps of: capturing an image frame from the vicinity of the vehicle; in the image frame, detecting imaged vertical edges ( Ei) of an object (80L, 80R); while illuminating the object (80L, 80R); using rear lights illumination from the vehicle, detecting imaged shadow edges ( Sj) of a shadow of the object responsive to the illumination from the vehicle; testing by pairs ( Ei, Sj) of the imaged vertical edges ( Ei) and the imaged shadow edges ( Sj) to match the imaged shadow edges ( Sj) to the corresponding imaged vertical edges Ei of the object (80L, 80R) using a meeting point (P 1-1, P 2-1) or extrapolation point in said image frame between the imaged vertical edges ( Ei) of the object (80L, 80R) and the respective imaged shadow edges ( Sj) of the object (80L, 80R). capturing an image frame from the vicinity of the vehicle; in the image frame, detecting imaged vertical edges ( Ei) of an object (80L, 80R); while illuminating the object (80L, 80R); using rear lights illumination from the vehicle, detecting imaged shadow edges ( Sj) of a shadow of the object responsive to the illumination from the vehicle; testing by pairs ( Ei, Sj) of the imaged vertical edges ( Ei) and the imaged shadow edges ( Sj) to match the imaged shadow edges ( Sj) to the corresponding imaged vertical edges Ei of the object (80L, 80R) using a meeting point (P 1-1, P 2-1) or extrapolation point in said image frame between the imaged vertical edges ( Ei) of the object (80L, 80R) and the respective imaged shadow edges ( Sj) of the object (80L, 80R).
A vehicle impact energy absorbing member for use in a bumper, a side door, or a pillar, the vehicle impact energy absorbing member comprising: a compression energy absorbing member (10, 10A-10C, 50, 55, 80) constituted by a foamed molded piece made of a synthetic resin to absorb an impact energy by using compression deformation; and a buckling energy absorbing member (20, 20D-20N, 20Q, 60, 65, 90) constituted by a solid member made of a synthetic resin material to absorb an impact energy by using buckling deformation, the buckling energy absorbing member having a buckling portion (22, 22F, 22H, 221, 22K-22N, 22P, 22Q, 62, 67, 92) which is in the form of a plate and capable of being buckled and deformed, wherein said compression energy absorbing member has an opening portion (11, 11A, 11B, 51, 56, 81), the buckling portion of the buckling energy absorbing member passes through the opening with buckling allowance spaces on opposite sides of the buckling portion, and a tip end of the buckling portion is placeable in the vicinity of a corresponding one of a bumper facer, a door trim, and a pillar trim, wherein the buckling allowance spaces are set that no mutual interference occurs between the inner wall surface of the opening portion (11, 11A, 11B, 51, 56, 81) of the compression energy absorbing member and the buckling portion when the buckling portion buckels. a compression energy absorbing member (10, 10A-10C, 50, 55, 80) constituted by a foamed molded piece made of a synthetic resin to absorb an impact energy by using compression deformation; and a buckling energy absorbing member (20, 20D-20N, 20Q, 60, 65, 90) constituted by a solid member made of a synthetic resin material to absorb an impact energy by using buckling deformation, the buckling energy absorbing member having a buckling portion (22, 22F, 22H, 221, 22K-22N, 22P, 22Q, 62, 67, 92) which is in the form of a plate and capable of being buckled and deformed, wherein said compression energy absorbing member has an opening portion (11, 11A, 11B, 51, 56, 81), the buckling portion of the buckling energy absorbing member passes through the opening with buckling allowance spaces on opposite sides of the buckling portion, and a tip end of the buckling portion is placeable in the vicinity of a corresponding one of a bumper facer, a door trim, and a pillar trim, wherein the buckling allowance spaces are set that no mutual interference occurs between the inner wall surface of the opening portion (11, 11A, 11B, 51, 56, 81) of the compression energy absorbing member and the buckling portion when the buckling portion buckels.
A host system communicating with a device, the host system comprising: a connector having a structure connectable to the device in both a first direction and a second direction, and comprising a plurality of pins disposed thereon; a connection direction detector configured to detect if the device is connected to the host system in the first direction or in the second direction by detecting a signal from at least one first pin of the plurality of pins; and a setting controller configured to receive, from the device, setting information (Info_S) related to a configuration supported by the device and control a configuration operation on the device based on direction information (Info_D) from the connection direction detector, wherein the host system is configured to perform control such that a function module having a unique function included in the device is selectively enabled based on the setting information (Info_S) and the direction information (Info_D), and wherein the function module is a communication module configured to perform wireless communication with another external system, or an access authority control module configured to control access authority to a nonvolatile memory device included in the device. a connector having a structure connectable to the device in both a first direction and a second direction, and comprising a plurality of pins disposed thereon; a connection direction detector configured to detect if the device is connected to the host system in the first direction or in the second direction by detecting a signal from at least one first pin of the plurality of pins; and a setting controller configured to receive, from the device, setting information (Info_S) related to a configuration supported by the device and control a configuration operation on the device based on direction information (Info_D) from the connection direction detector, wherein the host system is configured to perform control such that a function module having a unique function included in the device is selectively enabled based on the setting information (Info_S) and the direction information (Info_D), and wherein the function module is a communication module configured to perform wireless communication with another external system, or an access authority control module configured to control access authority to a nonvolatile memory device included in the device.
A sulfur-modified chloroprene rubber comprising a functional group A represented by General Formula below and positioned at a molecular terminal, wherein a mass ratio B/A of a content of a functional group B represented by General Formula below and positioned at a molecular terminal with respect to a content of the functional group A is 6.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 0.60% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms which may have a substituent.) a mass ratio B/A of a content of a functional group B represented by General Formula below and positioned at a molecular terminal with respect to a content of the functional group A is 6.00 or less, and a total amount of the functional group A and the functional group B is 0.10 to 0.60% by mass. (In the formula, R a1 and R a2 each independently represent a hydrogen atom, a halogen atom, a hydroxy group, an alkoxy group, a carboxy group, a carboxylate group, a cyano group, an alkyl group which may have a substituent, or an arylthio group which may have a substituent, and R a1 and R a2 may bond with each other to form a ring which may have a substituent.) (In the formula, R b represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms which may have a substituent.)
A chimeric antibody molecule that binds to human CD37 and that is defined by i) a variable heavy chain comprising the amino acid sequence shown in SEQ ID NO:2; ii) a variable light chain comprising the amino acid sequence shown in SEQ ID NO:4, iii) constant heavy and light chains that are of human origin. i) a variable heavy chain comprising the amino acid sequence shown in SEQ ID NO:2; ii) a variable light chain comprising the amino acid sequence shown in SEQ ID NO:4, iii) constant heavy and light chains that are of human origin.