mhurhangee/ep-ind-claims huggingface dataset:
An immunogenic composition comprising: a) a conjugate that is a capsular saccharide from GBS serotype Ia conjugated to CRM197; b) a conjugate that is a capsular saccharide from GBS serotype Ib conjugated to CRM197; c) a conjugate that is a capsular saccharide from GBS serotype III conjugated to CRM197; d) a conjugate that is a capsular saccharide from GBS serotype II conjugated to CRM197; and e) a conjugate that is a capsular saccharide from GBS serotype V conjugated to CRM197 wherein the capsular saccharide from GBS serotype V has a NeuNAc content of greater than 75% when compared to native GBS serotype V polysaccharide wherein the NeuNAc content is considered to be about 100%.
A method of conducting resolution between a set of conflicting radios in a multi-radio wireless device, comprising: identifying a set of radios to support communication with different wireless communication systems; identifying sets of candidate parameters for operation of respective identified radios, wherein the sets of candidate parameters comprise one or more of frequency sub-band parameters, power parameters, or radio frequency, RF Knob settings, the RF Knob settings including settings associated with notch filters, mixer frequency, and/or linearity of an associated low noise amplifier, LNA and/or other amplifier; selecting respective sets of parameters from identified sets of candidate parameters based on which at least a portion of the identified radios can operate simultaneously, wherein the selecting comprises selecting respective sets of parameters based on which at least a portion of the identified radios can operate simultaneously at a predefined quality level defined as a function of one or more of receiver interference level or acceptable power backoff. identifying a set of radios to support communication with different wireless communication systems; identifying sets of candidate parameters for operation of respective identified radios, wherein the sets of candidate parameters comprise one or more of frequency sub-band parameters, power parameters, or radio frequency, RF Knob settings, the RF Knob settings including settings associated with notch filters, mixer frequency, and/or linearity of an associated low noise amplifier, LNA and/or other amplifier; selecting respective sets of parameters from identified sets of candidate parameters based on which at least a portion of the identified radios can operate simultaneously, wherein the selecting comprises selecting respective sets of parameters based on which at least a portion of the identified radios can operate simultaneously at a predefined quality level defined as a function of one or more of receiver interference level or acceptable power backoff.
A fuel pump assembly for a gas turbine engine, the fuel pump assembly comprising: a shaft for transmitting motion; a gear connected to and coaxial with the shaft, the gear having a first wear surface; a first bearing coaxial with the shaft, the first bearing being configured to support the gear, wherein the first bearing has a second wear surface positioned to interact with the first wear surface; and a plurality of indents, wherein the indents are distributed in the first wear surface or the second wear surface and at least two of the plurality of indents are partially aligned in a radial direction, and characterized in that each of the indents has a depth that the indents extend into the first wear surface or the second wear surface and a ratio of a surface area of one of the indents to the depth of one of the indents is between 0.01 and 0.05 a shaft for transmitting motion; a gear connected to and coaxial with the shaft, the gear having a first wear surface; a first bearing coaxial with the shaft, the first bearing being configured to support the gear, wherein the first bearing has a second wear surface positioned to interact with the first wear surface; and a plurality of indents, wherein the indents are distributed in the first wear surface or the second wear surface and at least two of the plurality of indents are partially aligned in a radial direction, and characterized in that each of the indents has a depth that the indents extend into the first wear surface or the second wear surface and a ratio of a surface area of one of the indents to the depth of one of the indents is between 0.01 and 0.05
A secondary battery comprising at least one bulletproof material consisting of aramid fibers, glass fibers, ultra-high-molecular-weight polyethylene fibers (UHMWPE fibers), or polybenzoxazole fibers (PBO fibers), and wherein the bulletproof material is a high strength and high heat-resistant bulletproof material having a tensile strength ranging from 1.0 GPa to 6.0 GPa, and a pyrolysis temperature of 150°C or higher.
A device for obtaining information about a wheel, characterised in that it comprises a penetrating body for being at least partially inserted between a tyre and a rim of a wheel, and means for acquiring images installed in a portion of the penetrating body designed to be located internally of the tyre, in a position between the tyre and the rim.
Pneumatic tyre provided with a passive transponder, said pneumatic tyre of toroidal form defining at any point the axial, radial and circumferential directions with respect to a centre of the pneumatic tyre, having a radially inner surface and a radially outer surface, comprising a crown, two sidewalls and two beads, each bead having at least one annular bead core that rotates about a reference axis defining the axial direction from the centre of said pneumatic tyre, at least one carcass ply of toroidal form, at least one inner liner, at least one protector of toroidal form, which protector is made up of at least one elastomeric blend layer placed radially inwardly of said bead core, said carcass ply and said inner liner, including a first end, located axially inwardly and radially outwardly, and a second end called a bead toe located axially inwardly and radially inwardly, said passive transponder comprising at least one metal strand forming a radiating half-wave dipole antenna defining a longitudinal axis and capable of creating an electrical coupling with at least one electronic chip, said longitudinal axis is positioned substantially perpendicular to the threads of said carcass ply, said passive transponder being embedded in an electrically insulating elastomeric blend forming a patch, having, on the periphery thereof, a first face sited axially outwardly with respect to the centre and a second face sited axially inwardly with respect to the centre, which are substantially perpendicular to said reference axis, at least one end located radially inwardly, and one end located radially outwardly, respectively, relative to the reference axis corresponding to the minimum distance and the maximum distance, respectively, between said patch and said reference axis, characterized in that at least one of the faces (131, 132) of the patch extends axially between the axially inner end of the carcass ply and the inner surface of the pneumatic tyre and in that at least one of the ends (141, 142) of the patch extends radially at a distance between that of the bead toe and that of the bead core radially-outer end.
An information transmission method, comprising: sending, by an Integrated Access and Backhaul, IAB, node, an F1 message to a base station, wherein the base station is a MeNB; receiving, by the base station, the F1 message sent by the IAB node; and sending, by the base station, the F1 message to an IAB donor through an X2 message; wherein sending the F1 message from the IAB node to the base station comprises at least one of: carrying, by the IAB node, the F1 message in a first RRC message, and sending the first RRC message to the base station; and sending, by the IAB node, the F1 message to the base station via a signaling radio bearer, SRB. sending, by an Integrated Access and Backhaul, IAB, node, an F1 message to a base station, wherein the base station is a MeNB; receiving, by the base station, the F1 message sent by the IAB node; and sending, by the base station, the F1 message to an IAB donor through an X2 message; wherein sending the F1 message from the IAB node to the base station comprises at least one of: carrying, by the IAB node, the F1 message in a first RRC message, and sending the first RRC message to the base station; and sending, by the IAB node, the F1 message to the base station via a signaling radio bearer, SRB. carrying, by the IAB node, the F1 message in a first RRC message, and sending the first RRC message to the base station; and sending, by the IAB node, the F1 message to the base station via a signaling radio bearer, SRB.
A pharmaceutical composition, comprising: (a) granisetron or a pharmaceutically acceptable salt thereof, and (b) at least one aqueous vehicle polymer that is selected from a group consisting of a bioadhesive polymer comprising hypromellose, wherein the composition is a sprayable aqueous composition. (a) granisetron or a pharmaceutically acceptable salt thereof, and (b) at least one aqueous vehicle polymer that is selected from a group consisting of a bioadhesive polymer comprising hypromellose,
Filling system for filling bottles or similar containers with a liquid product, comprising a product vessel in which, during the filling process, a lower liquid space (1.1) which is taken up by product, and a gas space (1.2) above said liquid space are formed, having at least one filling element which is arranged below the product vessel and which has a filling element housing in which there is formed a liquid duct which is connected to the liquid space (1.1), and which forms a liquid dispensing opening at an underside, facing away from the product vessel, of the filling element housing, having a liquid valve which is arranged in the liquid duct and which has a valve body, which valve body is provided on a valve plunger arranged coaxially with a filling element axis and which valve body, for the purposes of opening and closing the liquid valve and controlled release of the product can be moved axially into the container arranged at the filling element, having a first gas duct which is formed in the valve plunger, said gas duct being arranged at an upper open end in the gas space (1.2) of the filling product vessel and of which the lower end is formed from a gas tube, provided at the valve plunger, which extends into a head space of the container arranged at the filling element, with a first gas valve, provided in the first gas duct, with a gas valve body which interacts with a valve seat formed in the first gas duct, as well as at least one actuation element, and for opening and closing the first gas valve is movable in the first gas duct, wherein a second gas duct is formed in the gas valve body, which is configured such that at least from time to time it can be connected fluid-tight with the first gas duct and wherein the gas valve body comprises at its end remote from the valve surface a valve opening, which forms a second gas valve, and via which, in the opened state, a gas flow is enabled through the first and second gas duct (14, 21) into the container arranged at the filling element, characterised in that the actuation element is formed by two lifting elements (18.1, 18.2) arranged coaxially with one another and preferably also coaxially with a filling element axis, of which a first lifting element (18.1) takes effect by means of a plunger and an adapter on the gas valve body, and of which a second lifting element (18.2) forms a stop for the lifting movement of the first lifting element (18.1), that in a first state of the second lifting element (18.2) the lift of the first lifting element (18.1) is limited to a first part lift, and, in a second state of the second lifting element (18.2), the second lifting element (18.2) is lifted by a second part lift, such that the lifting path of the first lifting element (18.1) is increased to the sum of both the part lifts (H1, H2).
An electrical switch comprising: • at least first and second stationary contact elements (10, 11) that are fastened in an insulating casing at a distance from each other; • a movable contact element that is adapted to rock in the insulating casing between a first stable position in which it opens electrical contact between the first and second stationary contact elements (10, 11), and a second stable position in which it closes electrical contact between the first and second stationary contact elements (10, 11); • a control button that is mounted to move relative to the insulating casing, so as to control the movement of the movable contact element between its first and second stable positions; and • brake means for braking the rocking of the movable contact element between its two stable positions; the electrical switch being characterized in that said brake means comprise a brake accessory having a support portion that is fastened to the control button and having a damping portion that forms an elastically-deformable bearing for said movable contact element, making it possible to brake its rocking towards its second stable position. • at least first and second stationary contact elements (10, 11) that are fastened in an insulating casing at a distance from each other; • a movable contact element that is adapted to rock in the insulating casing between a first stable position in which it opens electrical contact between the first and second stationary contact elements (10, 11), and a second stable position in which it closes electrical contact between the first and second stationary contact elements (10, 11); • a control button that is mounted to move relative to the insulating casing, so as to control the movement of the movable contact element between its first and second stable positions; and • brake means for braking the rocking of the movable contact element between its two stable positions;
A steering knuckle for a non driven or individually driven wheel of a heavy commercial vehicle, comprising - a knuckle body, - at least one support section for a king pin at one side of a main portion of the knuckle body, the support section comprising two ears (112, 114) spaced apart by a clearance, the ears (112, 114) being provided for holding the king pin, - a stub axle protruding from the main portion of the knuckle body on a side of the main portion opposite of the support section and having a main extension (L 120) arranged transversal to a centre axis through the ears (112, 114), wherein - the stub axle has an outer diameter at the main portion of the knuckle body which is least 60%, preferably 65%, more preferably 70% the clearance, wherein at least a portion of a disc brake is integrated into the knuckle body, wherein the portion of the disc brake comprises an inner part of a brake carrier, characterized in that an outer part of the brake carrier has side parts (216, 218) extending parallel to the stub axle by way of which the outer part is screwed to the inner part of the brake carrier, and wherein the brake disc is arranged between the inner and outer parts (212, 214) of the brake carrier. - a knuckle body, - at least one support section for a king pin at one side of a main portion of the knuckle body, the support section comprising two ears (112, 114) spaced apart by a clearance, the ears (112, 114) being provided for holding the king pin, - a stub axle protruding from the main portion of the knuckle body on a side of the main portion opposite of the support section and having a main extension (L 120) arranged transversal to a centre axis through the ears (112, 114), wherein - the stub axle has an outer diameter at the main portion of the knuckle body which is least 60%, preferably 65%, more preferably 70% the clearance, wherein at least a portion of a disc brake is integrated into the knuckle body, wherein the portion of the disc brake comprises an inner part of a brake carrier, characterized in that an outer part of the brake carrier has side parts (216, 218) extending parallel to the stub axle by way of which the outer part is screwed to the inner part of the brake carrier, and wherein the brake disc is arranged between the inner and outer parts (212, 214) of the brake carrier.
A display device comprising: a substrate; a light-emitting element disposed on the substrate; a planarization layer disposed on the light-emitting element; a first refractive index layer disposed on the planarization layer and including a total reflection inclination surface totally reflecting light emitted from the light-emitting element in a front direction and a refraction inclination surface refracting light emitted from the light-emitting element in the front direction; a second refractive index layer disposed on the first refractive index layer to be in contact with the refraction inclination surface and having a smaller refractive index than a refractive index of the first refractive index layer; and a third refractive index layer disposed on the first refractive index layer and the second refractive index layer to be in contact with the total reflection inclination surface and having a larger refractive index than the refractive index of the first refractive index layer. a substrate; a light-emitting element disposed on the substrate; a planarization layer disposed on the light-emitting element; a first refractive index layer disposed on the planarization layer and including a total reflection inclination surface totally reflecting light emitted from the light-emitting element in a front direction and a refraction inclination surface refracting light emitted from the light-emitting element in the front direction; a second refractive index layer disposed on the first refractive index layer to be in contact with the refraction inclination surface and having a smaller refractive index than a refractive index of the first refractive index layer; and a third refractive index layer disposed on the first refractive index layer and the second refractive index layer to be in contact with the total reflection inclination surface and having a larger refractive index than the refractive index of the first refractive index layer.
A camera module comprising: a lens barrel accommodating at least one lens; a front body accommodating the lens barrel; a substrate assembly which couples with the front body, is disposed so as to be spaced apart from the lens barrel, and comprises at least one substrate so as to have an image sensor and a connector mounted thereon; a shield can which couples with the substrate assembly so as to accommodate at least one portion of the substrate assembly; and a rear body which couples with the front body and accommodates the substrate assembly and the shield can, wherein the shield can comprises a hole formed in a position corresponding to the connector, and connection members which are bent and extends towards the inside from the hole, and wherein the connector passes through the hole, and the connector has a ground part disposed on the outer surface thereof so that the ground part and the connection members electrically make contact, characterized in that the hole is disposed with a groove recessed to outside, and in that the groove is disposed on a distal end of each connection member. a lens barrel accommodating at least one lens; a front body accommodating the lens barrel; a substrate assembly which couples with the front body, is disposed so as to be spaced apart from the lens barrel, and comprises at least one substrate so as to have an image sensor and a connector mounted thereon; a shield can which couples with the substrate assembly so as to accommodate at least one portion of the substrate assembly; and a rear body which couples with the front body and accommodates the substrate assembly and the shield can, wherein the shield can comprises a hole formed in a position corresponding to the connector, and connection members which are bent and extends towards the inside from the hole, and wherein the connector passes through the hole, and the connector has a ground part disposed on the outer surface thereof so that the ground part and the connection members electrically make contact, characterized in that the hole is disposed with a groove recessed to outside, and in that the groove is disposed on a distal end of each connection member.
A method of blowing a second optical fiber unit in a microtube, wherein the microtube contains a first optical fiber unit and wherein a free space in the microtube with the first optical fiber unit contained therein is less than 40 mm 2, wherein the first optical fiber unit has a first sheath comprising beads at least partially embedded in the first sheath, the method including providing the second optical fiber unit comprising a second sheath, wherein the second sheath is a smooth surface polymeric sheath which comprises a thermoplastic polymer and which includes an adherence reducing substance comprising ultra fine graphite particles or molybdenum disulphide of polytetrafluoroethylene particles and blowing the second optical fiber unit in the microtube containing the first optical fiber unit. the method including providing the second optical fiber unit comprising a second sheath, wherein the second sheath is a smooth surface polymeric sheath which comprises a thermoplastic polymer and which includes an adherence reducing substance comprising ultra fine graphite particles or molybdenum disulphide of polytetrafluoroethylene particles and blowing the second optical fiber unit in the microtube containing the first optical fiber unit.
A pneumatic tire, comprising a sealant layer located radially inside an innerliner, the sealant layer being formed by applying a sealant to an inner periphery of a tire from which mold release agents have been removed, wherein a length X in a tire width direction of an area of the sealant layer formed by applying a sealant to an inner periphery of a tire from which mold release agents have been removed and a length Y of a breaker of the tire in the tire width direction satisfy the following formula: 0 mm ≤ X - Y ≤ 8.0 mm. a sealant layer located radially inside an innerliner, the sealant layer being formed by applying a sealant to an inner periphery of a tire from which mold release agents have been removed, wherein a length X in a tire width direction of an area of the sealant layer formed by applying a sealant to an inner periphery of a tire from which mold release agents have been removed and a length Y of a breaker of the tire in the tire width direction satisfy the following formula: 0 mm ≤ X - Y ≤ 8.0 mm.