mhurhangee/ep-ind-claims huggingface dataset:
A collet comprising a bore intended to receive a balance staff, at least a first part and a second part, the first and second parts being separated by a plane perpendicular to the axis of the bore, an element for attaching the collet to a hairspring being exclusively located on the first part and an element for connecting the collet to the balance staff being essentially, or even exclusively, located on the second part, wherein the attachment element or attachment point lies at a distance from the center of the collet that is less than half the diameter of a cylinder inside which the second part can be inscribed, notably at a distance less than or equal to the mean of: - half the diameter of the cylinder inside which the second part can be inscribed, and - half the diameter of the inscribed circle (d max) inscribed inside a central opening of the collet. - half the diameter of the cylinder inside which the second part can be inscribed, and - half the diameter of the inscribed circle (d max) inscribed inside a central opening of the collet.
A corner block, comprising: an upper convex structure arranged on a top face of the corner block, the upper convex structure extending along a length direction of the top face, with a length of the upper convex structure the same as a length of the top face; and a lower concave structure arranged on a bottom face of the corner block, the lower concave structure configured for receiving the upper convex structure of another corner block; wherein the upper convex structure includes a pair of guiding faces extending inclined from the top face, and a connecting face connecting with the guiding faces; wherein the corner block comprises a block body, characterized in that the corner block further comprises a core embedded in the block body and a waterproof layer wrapping the core, with the waterproof layer located between the block body and the core; and a supporting member fixedly connected with the waterproof layer, and a thermal insulating layer located between the waterproof layer and the core, with the supporting member embedded in the block body. a lower concave structure arranged on a bottom face of the corner block, the lower concave structure configured for receiving the upper convex structure of another corner block; wherein the upper convex structure includes a pair of guiding faces extending inclined from the top face, and a connecting face connecting with the guiding faces; wherein the corner block comprises a block body, characterized in that the corner block further comprises a core embedded in the block body and a waterproof layer wrapping the core, with the waterproof layer located between the block body and the core; and a supporting member fixedly connected with the waterproof layer, and a thermal insulating layer located between the waterproof layer and the core, with the supporting member embedded in the block body.
A compound of Formula: wherein R 1 or R 2 is -X-W-L-Z, wherein when R 1 is -X-W-L-Z, then R 2 is -NH 2, when R 2 is -X-W-L-Z, then R 1 is -OH, and X is NH; W is selected from a bond, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl, substituted alkynyl, cycloalkyl, substituted cycloalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, heteroaryl, substituted heteroaryl, and carbonyl; L is a bond or a linker; and Z is a detectable label, and the detectable label is an enzyme; or a salt thereof. R 1 or R 2 is -X-W-L-Z, wherein when R 1 is -X-W-L-Z, then R 2 is -NH 2, when R 2 is -X-W-L-Z, then R 1 is -OH, and X is NH; W is selected from a bond, alkyl, substituted alkyl, alkenyl, substituted alkenyl, alkynyl, substituted alkynyl, cycloalkyl, substituted cycloalkyl, heterocyclyl, substituted heterocyclyl, aryl, substituted aryl, heteroaryl, substituted heteroaryl, and carbonyl; L is a bond or a linker; and Z is a detectable label, and the detectable label is an enzyme; or a salt thereof.
A method of preparing a drawn PET fiber, including the steps of: melt-spinning a polymer including 90 mol% or more of PET through a spinneret by 3-ply or 4-ply co-spinning method so as to prepare an undrawn PET fiber having a fineness of 2222 dTex (2000 denier) or more, and a coefficient of variation of cross sectional area of 8.0% or less measured using an optical microscope, wherein the spinning speed is 2500 to 4000 m/min; and drawing the undrawn fiber with a drawing ratio of 1.4 to 2.0. melt-spinning a polymer including 90 mol% or more of PET through a spinneret by 3-ply or 4-ply co-spinning method so as to prepare an undrawn PET fiber having a fineness of 2222 dTex (2000 denier) or more, and a coefficient of variation of cross sectional area of 8.0% or less measured using an optical microscope, wherein the spinning speed is 2500 to 4000 m/min; and drawing the undrawn fiber with a drawing ratio of 1.4 to 2.0.
An exterior mirror module for a vehicle comprising: an image sensor configured to capture image data; a reflective element disposed on a first side portion; a housing configured to support the reflective element and the image sensor in connection with the vehicle; wherein the exterior mirror module is characterized by: an actuator configured to adjust an orientation of the reflective element about an adjustment axis while maintaining an orientation of the image sensor; and a controller in communication with the image sensor and the actuator, wherein the controller is configured to control the actuator to adjust an orientation of the reflective element about the adjustment axis. an image sensor configured to capture image data; a reflective element disposed on a first side portion; a housing configured to support the reflective element and the image sensor in connection with the vehicle; wherein the exterior mirror module is characterized by: an actuator configured to adjust an orientation of the reflective element about an adjustment axis while maintaining an orientation of the image sensor; and a controller in communication with the image sensor and the actuator, wherein the controller is configured to control the actuator to adjust an orientation of the reflective element about the adjustment axis. an actuator configured to adjust an orientation of the reflective element about an adjustment axis while maintaining an orientation of the image sensor; and a controller in communication with the image sensor and the actuator, wherein the controller is configured to control the actuator to adjust an orientation of the reflective element about the adjustment axis.
Use of a powdery composition comprising: at least one dye selected from a group comprising riboflavin-5'-phosphate, carmine, brilliant blue FCF and/or patent blue V; at least one acid selected from a group comprising citric acid, malic acid, tartaric acid, dehydroascorbic acid and/or ascorbic acid; as well as at least one sugar in an amount ranging from 25% by weight to 94% by weight, based on the total amount of the composition, for coloring eggs.
A spark plug, comprising: an insulator that extends along a central axis, the insulator including a through hole that passes through the insulator along the central axis; a center electrode that extends along the central axis, the center electrode including a rear end positioned inside of the through hole; a metal terminal nut that extends along the central axis, the metal terminal nut including a tip end positioned at the rear end side with respect to the rear end of the center electrode inside of the through hole; a resistor disposed in a position between the center electrode and the metal terminal nut inside of the through hole and apart from the center electrode; and a conductive seal disposed between the resistor and the center electrode inside of the through hole, the conductive seal contacting both the center electrode and the resistor, the conductive seal includes a glass and metal; wherein the resistor has a contact surface in contact with the conductive seal, the contact surface including: a first and a second contact position (PP1, PP2) with an inner peripheral surface of the insulator; a portion where a distance in the central axis direction between the contact surface and a virtual plane changes according to a position on the contact surface, the virtual plane including a rear end of the resistor and being perpendicular to the central axis; and at least one point where the distance is a local maximum (SP1, SP2, SP4, SP5, SP7, SP8) and at least one point where the distance is a local minimum (BP1, SP6, SP9), in at least one cross section including the central axis. an insulator that extends along a central axis, the insulator including a through hole that passes through the insulator along the central axis; a center electrode that extends along the central axis, the center electrode including a rear end positioned inside of the through hole; a metal terminal nut that extends along the central axis, the metal terminal nut including a tip end positioned at the rear end side with respect to the rear end of the center electrode inside of the through hole; a resistor disposed in a position between the center electrode and the metal terminal nut inside of the through hole and apart from the center electrode; and a conductive seal disposed between the resistor and the center electrode inside of the through hole, the conductive seal contacting both the center electrode and the resistor, the conductive seal includes a glass and metal; wherein the resistor has a contact surface in contact with the conductive seal, the contact surface including: a first and a second contact position (PP1, PP2) with an inner peripheral surface of the insulator; a portion where a distance in the central axis direction between the contact surface and a virtual plane changes according to a position on the contact surface, the virtual plane including a rear end of the resistor and being perpendicular to the central axis; and at least one point where the distance is a local maximum (SP1, SP2, SP4, SP5, SP7, SP8) and at least one point where the distance is a local minimum (BP1, SP6, SP9), in at least one cross section including the central axis.
A valve unit for an aircraft, comprising: a valve assembly; a servo controller coupled to the valve assembly and configured to control operation of the valve assembly, wherein at least a portion of at least one of the valve assembly or servo controller is formed by a rapidly solidified aluminum alloy, wherein the valve assembly is configured to modulate a flow of air, the servo controller being configured to at least partially pneumatically control the valve assembly with a portion of the air; and a heat exchanger mounted to the servo controller on of a side of the servo controller opposite the valve assembly, the heat exchanger configured to receive the portion of the air from the valve assembly and to provide the portion of the air to the servo controller, the heat exchanger configured to remove heat from the portion of the air after receiving the portion of the air from the valve assembly and prior to providing the portion of the air to the servo controller, wherein the heat exchanger defines a plurality of passages with a serpentine pattern for removing the heat from the portion of the air. a valve assembly; a servo controller coupled to the valve assembly and configured to control operation of the valve assembly, wherein at least a portion of at least one of the valve assembly or servo controller is formed by a rapidly solidified aluminum alloy, wherein the valve assembly is configured to modulate a flow of air, the servo controller being configured to at least partially pneumatically control the valve assembly with a portion of the air; and a heat exchanger mounted to the servo controller on of a side of the servo controller opposite the valve assembly, the heat exchanger configured to receive the portion of the air from the valve assembly and to provide the portion of the air to the servo controller, the heat exchanger configured to remove heat from the portion of the air after receiving the portion of the air from the valve assembly and prior to providing the portion of the air to the servo controller, wherein the heat exchanger defines a plurality of passages with a serpentine pattern for removing the heat from the portion of the air.
Satchel (1, 1a to 1e) or backpack for a child, teenager or adult, of the type comprising a flexible or semi-rigid envelope comprising an anterior dorsal panel, and which can be closed around a storage volume, and equipped with at least two lateral shoulder straps (21, 22) each attached to an upper anchoring point (211, 221) in the upper part and to a lower anchoring point (221, 222) in the lower part of said envelope, making it possible to carry said satchel on the back, characterized in that it comprises moreover at least one ventral holding strap (3, 31, 32) which is produced in an elastic material and is anchored on each side of the envelope at at least two ventral anchoring points called upper and lower, which are separated by a height called holding height having at least a quarter of the height of the satchel, and in particular having at least a third of this height.
An in vitro method of identifying compounds capable of binding to a functional conformational state of a protein of interest which is human IgE or protein fragment thereof, said method comprising the steps of: a) Binding a function-modifying antibody to the protein of interest or a fragment thereof, said antibody having the ability in vitro and/or in vivo to inhibit a therapeutically relevant activity of a human IgE, to provide an antibody-constrained protein or fragment, wherein the antibody has binding kinetics with the protein or fragment which are such that it has a low dissociation rate constant of 1-9x10- 4 s- 1 or less, b) Providing a test compound which has a low molecular weight, which is 350Da or less, c) Evaluating whether the test compound of step b) binds the antibody-constrained protein or fragment, and d) Selecting a compound from step c) based on the ability to bind to the antibody-constrained protein or fragment thereof. a) Binding a function-modifying antibody to the protein of interest or a fragment thereof, said antibody having the ability in vitro and/or in vivo to inhibit a therapeutically relevant activity of a human IgE, to provide an antibody-constrained protein or fragment, wherein the antibody has binding kinetics with the protein or fragment which are such that it has a low dissociation rate constant of 1-9x10- 4 s- 1 or less, b) Providing a test compound which has a low molecular weight, which is 350Da or less, c) Evaluating whether the test compound of step b) binds the antibody-constrained protein or fragment, and d) Selecting a compound from step c) based on the ability to bind to the antibody-constrained protein or fragment thereof.
A method comprising: receiving, by a base station distributed unit from a base station central unit, at least one information element indicating activation of a packet data convergence protocol, PDCP, packet duplication of at least one bearer of a wireless device; and transmitting, by the base station distributed unit and based on the activation: PDCP packets of the at least one bearer; and duplicated PDCP packets of the at least one bearer. receiving, by a base station distributed unit from a base station central unit, at least one information element indicating activation of a packet data convergence protocol, PDCP, packet duplication of at least one bearer of a wireless device; and transmitting, by the base station distributed unit and based on the activation: PDCP packets of the at least one bearer; and duplicated PDCP packets of the at least one bearer. PDCP packets of the at least one bearer; and duplicated PDCP packets of the at least one bearer.
Inspection device for inspecting containers, with - at least two cameras for the optical inspection of at least one region of a container, - and at least one optical channel, through which there runs at least one optical path between a first camera and the container, and a second optical path between a second camera and the container, - wherein the optical channel comprises at least two channel elements which are the same, which in each case comprise openings, through which the optical paths run, - and wherein at least one of the channel elements comprises an insert to be received in a channel element, - wherein the insert comprises a holding element for at least one beam splitting element, at which the first optical path is separated from the second optical path, wherein - the insert comprises two openings for the passage of optical paths, and wherein - the openings are formed as holes, which form an angle to one another. - at least two cameras for the optical inspection of at least one region of a container, - and at least one optical channel, through which there runs at least one optical path between a first camera and the container, and a second optical path between a second camera and the container, - wherein the optical channel comprises at least two channel elements which are the same, which in each case comprise openings, through which the optical paths run, - and wherein at least one of the channel elements comprises an insert to be received in a channel element, - wherein the insert comprises a holding element for at least one beam splitting element, at which the first optical path is separated from the second optical path, wherein - the insert comprises two openings for the passage of optical paths, and wherein - the openings are formed as holes, which form an angle to one another.
A corner fitting for a door element, in particular for a glass door element, having a first fitting element and a second fitting element, which each have at least in sections a bearing section (5, 5.1), which comprises an intermediate layer contactable with the door element, and the fitting elements (3, 4) delimit the clamping region, wherein a holding element is operatively connected to a connecting element, which serves to mount the door element on a center of rotation and/or an axis, wherein at least one interchangeable rigid distancing element (8, 8.1) is arranged between the fitting elements (3, 4) outside of the bearing sections (5, 5.1), wherein the distancing element (8, 8.1) forms a counter bearing to the bearing sections (5, 5.1) and to the door element that can be clamped in the clamping region, characterized in that a fastening mechanism is integrated at least on the holding element and at least on the connecting element, and can be transferred between a released state and a fixing state, wherein, in the released state, the holding element is displaceable at the fitting elements (3, 4) and, in the fixing state, is fastened in a non-positive and/or positive manner to at least one fitting element (3, 4) and wherein a free space runs in the shape of a recess along the longitudinal extension of at least one fitting element (3, 4) and the holding element is mounted with a head part (10.1) so as to be movable in the free space, wherein, in the fixing state, the holding element abuts against the free space with a support section, which in particular as an engagement section is located on the head part (10.1) and wherein, in the fixing state, clamping is effective between the holding element and the free space, wherein the clamping prevents a movement of the holding element relative to the fitting element (3, 4) and wherein the maximum distance of the fitting elements or the maximum size of the distancing elements is delimited by the support section of the holding element.
A delaminatable container comprising an outer layer and an inner layer and having an inner bag which is composed of the inner layer and configured to contract with a decrease in contents, wherein: the inner layer comprises, as an innermost layer, an inner EVOH layer composed of EVOH resin, the EVOH resin contained in the inner EVOH layer has an ethylene content of equal to or less than 34 mol%, characterized in that the inner EVOH layer has a thickness of equal to or more than 21 μm and equal to or less than 50 μm. the inner layer comprises, as an innermost layer, an inner EVOH layer composed of EVOH resin, the EVOH resin contained in the inner EVOH layer has an ethylene content of equal to or less than 34 mol%, characterized in that the inner EVOH layer has a thickness of equal to or more than 21 μm and equal to or less than 50 μm.
Light cover for an elongate lighting assembly comprising a substantially plate-shaped, elongate light emitting element as well as mounting sections which are provided for mounting the light cover on a lamp housing and are disposed on the long sides of the light emitting element, characterised in that the light emitting element and the mounting sections are made of different materials and the material of the mounting sections is more flexible than the material of the light emitting element, and wherein the light cover is formed in one piece.
A method for adjusting a handover area, carried out by a device for adjusting a handover area, the method comprising: acquiring running information of a train after the train starts, wherein the running information of the train comprises position information and speed information of the train; determining, based on the running information of the train, a required handover area range of a target handover area which the train is about to enter; adjusting a handover area range of the target handover area based on a comparison result between the required handover area range of the target handover area which the train is about to enter and a current handover area range of the target handover area, wherein an overlapped coverage area of source and target cell forms the target handover area; and when there is no train passing the target handover area within a first preset time, adjusting the handover area range of the target handover area to be a preset handover area range. acquiring running information of a train after the train starts, wherein the running information of the train comprises position information and speed information of the train; determining, based on the running information of the train, a required handover area range of a target handover area which the train is about to enter; adjusting a handover area range of the target handover area based on a comparison result between the required handover area range of the target handover area which the train is about to enter and a current handover area range of the target handover area, wherein an overlapped coverage area of source and target cell forms the target handover area; and when there is no train passing the target handover area within a first preset time, adjusting the handover area range of the target handover area to be a preset handover area range.