mhurhangee/patent-ind-claim-en huggingface dataset:
A system for manually overriding a solenoid operated valve in an event of power failure, comprising: a solenoid operated valve, the solenoid operated valve comprising: a valve body including a sealing surface , a fluid inlet and a fluid outlet; a sealing element selectively separating the fluid inlet from the fluid outlet; a solenoid configured to selectively couple and decouple the sealing element to the sealing surface ; a lifter threadedly coupled to the solenoid operated valve; and a pin inserted into a plurality of holes disposed within the valve body such that the pin rests in a recess of the lifter , wherein the pin limits translation of the lifter ; wherein rotation of the lifter relative to the valve body in a first direction causes the lifter to decouple the sealing element from the sealing surface . a solenoid operated valve, the solenoid operated valve comprising: a valve body including a sealing surface , a fluid inlet and a fluid outlet; a sealing element selectively separating the fluid inlet from the fluid outlet; a solenoid configured to selectively couple and decouple the sealing element to the sealing surface ; a lifter threadedly coupled to the solenoid operated valve; and a pin inserted into a plurality of holes disposed within the valve body such that the pin rests in a recess of the lifter , a valve body including a sealing surface , a fluid inlet and a fluid outlet; a sealing element selectively separating the fluid inlet from the fluid outlet; a solenoid configured to selectively couple and decouple the sealing element to the sealing surface ; a lifter threadedly coupled to the solenoid operated valve; and a pin inserted into a plurality of holes disposed within the valve body such that the pin rests in a recess of the lifter , wherein the pin limits translation of the lifter ; wherein rotation of the lifter relative to the valve body in a first direction causes the lifter to decouple the sealing element from the sealing surface .
Arrangement for handling a power cable of a, in particular offshore, wind turbine , in particular for transportation and/or connecting to a switch gear and/or reconnecting, the arrangement comprising: a cable support system adapted to support a portion of the power cable ; a guiding system being fixedly connectable or connected to a wind turbine tower and being adapted to guide the cable support system along a linear, in particular vertical, track ; characterised by further comprising: a hoist at one end connectable to a connection location at the guiding system , on another end connectable to at least two holding locations at the support system, the hoist being configured to selectively lift or lower the cable support system relative to the guiding system .
Motor vehicle rear train comprising a rear axle , at least one suspension spring and a support cup for said spring which is secured to the axle, characterized in that it comprises a member for absorbing the energy of an impact with an external obstacle at the rear of the vehicle attached to the support cup for said spring and configured to deform so as to come into contact with the spring in the event of an impact with an external obstacle at the rear of the vehicle, the impact absorbing member being made of a ductile material.
An anti-human Igβ antibody comprising a heavy chain variable region comprising CDR1 consisting of the amino acid sequence of amino acid numbers 31 to 35 of SEQ ID NO: 2, CDR2 consisting of the amino acid sequence of amino acid numbers 50 to 65 of SEQ ID NO: 2, and CDR3 consisting of the amino acid sequence of amino acid numbers 98 to 108 of SEQ ID NO: 2, a light chain variable region comprising CDR1 consisting of the amino acid sequence of amino acid numbers 24 to 38 of SEQ ID NO: 4, CDR2 consisting of the amino acid sequence of amino acid numbers 54 to 60 of SEQ ID NO: 4, and CDR3 consisting of the amino acid sequence of amino acid numbers 93 to 101 of SEQ ID NO: 4, and a heavy chain constant region which is a human Igyl constant region having amino acid mutations of S239D, H268D, and L328W.
A system comprising: a planning section configured to generate a production plan for controlling a production site during a target interval, using a planning model that has been updated to a newest state; a base planning section configured to generate a base plan to serve as a base of the production plan, using an unupdated planning model; and a tracking section configured to acquire the production plan generated by the planning section and the base plan generated by the base planning section , and to track improvement in the production plan caused by the update of the planning model, based on the production plan and the base plan. a planning section configured to generate a production plan for controlling a production site during a target interval, using a planning model that has been updated to a newest state; a base planning section configured to generate a base plan to serve as a base of the production plan, using an unupdated planning model; and a tracking section configured to acquire the production plan generated by the planning section and the base plan generated by the base planning section , and to track improvement in the production plan caused by the update of the planning model, based on the production plan and the base plan.
A process for the polymerisation of monomer in a reactor, which process comprises contacting a first stream comprising vapour derived from the effluent withdrawn from the reactor with a feed stream to the reactor, said first stream comprising the majority of the vaporised components of the liquid medium in the effluent withdrawn from the reactor, and wherein at least 80% by weight of the first stream is in vapour form when brought into contact with the feed stream.
An agent, which is a water- and oil-repellent agent for fibers, comprising a bottle brush polymer having a structure of formula : wherein m is an integer of 10-5,000, R 1 is H or CH 3 ; R 2 is a divalent organic group; and R 3 is a polymer chain having a structure of formula : wherein R 4 is H or CH 3 ; R 5 is a monovalent C 16-40 -hydrocarbon group; and n is an integer of 10-1,000.
A vehicle roof comprising a transparent roof portion and a roller blind assembly for shading the transparent roof portion, the roller blind assembly comprising a roller blind web whose lateral edges are each guided in a guide track of a guide rail , characterized in that the guide rail comprises a rail body which extends along the transparent roof portion and which is an injection-molded plastic part, and the guide track is formed by a profile which is an insert of the injection-molded plastic part and which is overmolded with the injection-molded plastic part.
A cable jacket composition comprising a multimodal olefin copolymer, wherein the multimodal olefin copolymer has density of 0.935-0.960 g/cm 3 measured according to ISO 1183-1:2004 on compression molded specimen prepared according to EN ISO 1872-2; and MFR 2 of 2.2-10.0 g/10 min measured according to ISO 1133-1 at 190°C, and the composition has ESCR of at least 2000 hours measured according to IEC 60811-406, method B and cable shrinkage of 0.70% or lower measured as disclosed in the specification.
Screw spindle pump having a spindle housing , in which a drive spindle and at least one running spindle which meshes therewith are received in spindle bores , characterized by an outer housing which encloses the spindle housing and on which an axial inlet port and a radial outlet port are provided, wherein the spindle housing has an axial fluid outlet for the fluid delivered through the spindle housing by the drive spindle and the running spindle , which axial fluid outlet communicates with a fluid chamber , which is formed between the spindle housing and the outer housing , extends around 360°, and in turn communicates with the radial outlet port .
The use of an organozinc compound to reduce a HLMI/MI shear ratio and/or to increase a Mz/Mw ratio of an olefin polymer in a method comprising: (i) contacting a dual catalyst system with an olefin monomer and an optional olefin comonomer in a polymerization reactor system under polymerization conditions to produce an olefin polymer, wherein the dual catalyst system comprises a first metallocene catalyst component and a second metallocene catalyst component; and (ii) introducing an amount of the organozinc compound into the polymerization reactor system, wherein the organozinc compound comprises a compound having the formula: Zn(X 10 )(X 11 ); wherein: X 10 is a C 1 to C 18 hydrocarbyl group; and X 11 is H, a halide, a C 1 to C 18 hydrocarbyl group, or a C 1 to C 18 hydrocarboxy group. (i) contacting a dual catalyst system with an olefin monomer and an optional olefin comonomer in a polymerization reactor system under polymerization conditions to produce an olefin polymer, wherein the dual catalyst system comprises a first metallocene catalyst component and a second metallocene catalyst component; and (ii) introducing an amount of the organozinc compound into the polymerization reactor system, X 10 is a C 1 to C 18 hydrocarbyl group; and X 11 is H, a halide, a C 1 to C 18 hydrocarbyl group, or a C 1 to C 18 hydrocarboxy group.
An inverted microwell system for microanalysis of particle function, comprising: a) a device comprising one or more microwell having an open upper end and an open or closed lower end, the upper end open to a microchannel comprising a fluid inlet port and a fluid outlet port, facilitating transport of a particles containing fluid to the microwell, and the lower end , when open, open to the atmosphere outside the microwell; b) a controlled electrode array disposed along said microchannel, wherein said electrode array comprises at least four electrodes positioned along an axis (B-B') perpendicular to the fluid flow in said microchannel; c) a substrate defining a vertical wall of the microwell that extends transversely between the upper end to the lower end of the microwell in which said electrodes are embedded in, such that adjacent electrodes are separated from each other by portions of said substrate , where third electrode is positioned above first electrode and fourth electrode is positioned above second electrode , and first electrode is facing second electrode and third electrode is facing fourth electrode , wherein said first and second electrodes are positioned near the junction of the microchannel with the microwell , said electrode array creating a pattern of electric field strength to cause a particle to move in a desired direction in the microchannel ; wherein it further comprises a pair of facing electrodes ringing the microwell, with said third electrode is in a position above fifth electrode , while said fourth electrode is in a position above sixth electrode a) a device comprising one or more microwell having an open upper end and an open or closed lower end, the upper end open to a microchannel comprising a fluid inlet port and a fluid outlet port, facilitating transport of a particles containing fluid to the microwell, and the lower end , when open, open to the atmosphere outside the microwell; b) a controlled electrode array disposed along said microchannel, wherein said electrode array comprises at least four electrodes positioned along an axis (B-B') perpendicular to the fluid flow in said microchannel; c) a substrate defining a vertical wall of the microwell that extends transversely between the upper end to the lower end of the microwell in which said electrodes are embedded in, such that adjacent electrodes are separated from each other by portions of said substrate , where third electrode is positioned above first electrode and fourth electrode is positioned above second electrode , and first electrode is facing second electrode and third electrode is facing fourth electrode , wherein said first and second electrodes are positioned near the junction of the microchannel with the microwell , said electrode array creating a pattern of electric field strength to cause a particle to move in a desired direction in the microchannel ;
Method for operating an energy storage and supply system comprising a combination of a heat pump (HP) and a thermochemical storage (TCS) unit, wherein said method comprises charging and discharging phases which both comprise providing a HP warm stream by the HP and leading said HP warm stream to the TCS unit to respectively thermally charge and discharge said TCS unit.
Powertrain comprising a heat engine , a heat engine turbocharger , a turbocharger pump , a water outlet housing to which the heat engine is in particular connected , a radiator and a unit heater by means of a heat transfer circuit in which a heat transfer fluid circulates, said heat transfer circuit comprising: - a first segment of heat transfer circuit positioned at the outlet of said heat engine on which said turbocharger is mounted, and - a second segment of heat transfer circuit, connecting the water outlet box to said air heater , characterized in that that said heat transfer circuit comprises a third segment on which said turbocharger pump is mounted, said third segment having a third segment inlet located on the first segment upstream of the turbocharger and a third segment outlet located on the second segment to supply heat transfer fluid to said air heater , said first segment being connected to the third segment downstream of said pump and a check valve is provided on said second segment upstream of said outlet of the third segment . a second segment of heat transfer circuit, connecting the water outlet box to said air heater , characterized in that that said heat transfer circuit comprises a third segment on which said turbocharger pump is mounted, said third segment having a third segment inlet located on the first segment upstream of the turbocharger and a third segment outlet located on the second segment to supply heat transfer fluid to said air heater , said first segment being connected to the third segment downstream of said pump and a check valve is provided on said second segment upstream of said outlet of the third segment .
A molded article comprising: a resin matrix having a surface, said resin matrix formed from cross-linked vinyl-ester resin; glass microspheroids having a mean diameter of from 16 to 45 microns in said resin matrix, said microspheroids having a specific gravity of between 0.15 and 0.6 and an isotactic crush strength of greater than or equal to 2750 kilopascals (kPa); a plurality of alkoxysilane surface activating agent molecules covalently bonded to each of said glass microspheroids, the surface activating agent molecules being present in an amount to form from 0.1 to 1 monolayer on the surface of the microspheroids as determined by differential scanning calorimetry / thermogravimetric analysis to determine the mass of alkoxysilane surface activating agent molecules on the surface of the glass microspheroids, the known surface area of microspheroids per gram and the cone angle scribed by the alkoxysilane surface activating agent molecules on the glass microspheroid surface, which cone angle is calculated using the algorithm of Tolman or refinements thereof (as described in the description); filler particles in said resin matrix; and fibers in said resin matrix, wherein the article has a specific gravity of between 0.80 and 1.25. a resin matrix having a surface, said resin matrix formed from cross-linked vinyl-ester resin; glass microspheroids having a mean diameter of from 16 to 45 microns in said resin matrix, said microspheroids having a specific gravity of between 0.15 and 0.6 and an isotactic crush strength of greater than or equal to 2750 kilopascals (kPa); a plurality of alkoxysilane surface activating agent molecules covalently bonded to each of said glass microspheroids, the surface activating agent molecules being present in an amount to form from 0.1 to 1 monolayer on the surface of the microspheroids as determined by differential scanning calorimetry / thermogravimetric analysis to determine the mass of alkoxysilane surface activating agent molecules on the surface of the glass microspheroids, the known surface area of microspheroids per gram and the cone angle scribed by the alkoxysilane surface activating agent molecules on the glass microspheroid surface, which cone angle is calculated using the algorithm of Tolman or refinements thereof (as described in the description); filler particles in said resin matrix; and fibers in said resin matrix, wherein the article has a specific gravity of between 0.80 and 1.25.
A uridine prodrug for use in treating a genetic glycosylation disorder in a subject, wherein said treating comprises administration of the uridine prodrug to the subject in an amount sufficient to raise plasma uridine in the subject to a level greater than 30 micromolar; wherein the uridine prodrug is uridine triacetate; and wherein: (a) said treating comprises administration of the uridine prodrug in one or more doses from 0.5 to 5 grams of the uridine prodrug per square meter of body surface area; optionally wherein the uridine prodrug dose is from 1.5 to 3 grams per square meter of body surface area; (b) the uridine prodrug is formulated for administration in one or more doses from 0.5 to 5 grams of the uridine prodrug per square meter of body surface area; optionally wherein the uridine prodrug dose is from 1.5 to 3 grams per square meter of body surface area; or (c) said treating comprises administration of the uridine prodrug in one or more doses from 2 to 10 grams. (a) said treating comprises administration of the uridine prodrug in one or more doses from 0.5 to 5 grams of the uridine prodrug per square meter of body surface area; optionally wherein the uridine prodrug dose is from 1.5 to 3 grams per square meter of body surface area; (b) the uridine prodrug is formulated for administration in one or more doses from 0.5 to 5 grams of the uridine prodrug per square meter of body surface area; optionally wherein the uridine prodrug dose is from 1.5 to 3 grams per square meter of body surface area; or (c) said treating comprises administration of the uridine prodrug in one or more doses from 2 to 10 grams.
A method comprising: communicating an indication to a first user equipment, UE, that a network supports a cellular vehicle-to-everything, C-V2X, network location service; obtaining , by a mobility element of the network, an attach request from the first LTE, wherein the attach request indicates an attach type associated with a network location service; communicating , based on the attach type being associated with the network location service, an attach accept to the first UE to trigger a location request for the first UE, wherein the attach accept is communicated to the first UE without the mobility element authenticating the first UE; and communicating location information to the first LTE based on the location request to enable communications, between the first UE and one or more other UE, utilizing a C-V2X PC5 interface. communicating an indication to a first user equipment, UE, that a network supports a cellular vehicle-to-everything, C-V2X, network location service; obtaining , by a mobility element of the network, an attach request from the first LTE, wherein the attach request indicates an attach type associated with a network location service; communicating , based on the attach type being associated with the network location service, an attach accept to the first UE to trigger a location request for the first UE, wherein the attach accept is communicated to the first UE without the mobility element authenticating the first UE; and communicating location information to the first LTE based on the location request to enable communications, between the first UE and one or more other UE, utilizing a C-V2X PC5 interface.
A method of preparing a graft copolymer comprising: 1) adding a conjugated diene-based monomer and performing emulsion polymerization to prepare a conjugated diene-based polymer latex; and 2) adding the conjugated diene-based polymer latex, an aromatic vinyl monomer, and a vinyl cyan monomer and performing emulsion polymerization to prepare a graft copolymer latex, wherein an emulsifier having an APHA color value of 50 or less and a critical micelle concentration of 1 to 50 g/l is added, wherein the APHA color value is determined according to ASTM D1209. 1) adding a conjugated diene-based monomer and performing emulsion polymerization to prepare a conjugated diene-based polymer latex; and 2) adding the conjugated diene-based polymer latex, an aromatic vinyl monomer, and a vinyl cyan monomer and performing emulsion polymerization to prepare a graft copolymer latex,
An aqueous dispersion comprising: i. water; and ii. potassium calcium polyphosphate dispersed within the water where said dispersion is characterized by a Brookfield viscosity (Brookfield RVT, spindle #3, 25 °C, 20 rpm) of from about 1500 to about 3000 cps, where said dispersion is characterized by a particle size distribution wherein at least 90% of the particles within the dispersion have a particle size of less than 1 micron, and where said aqueous dispersion includes from 15% to 25% w/w suspended particles having a particle size of less than 1 micron. i. water; and ii. potassium calcium polyphosphate dispersed within the water
Vehicle comprising a platform and at least one box attached to said platform , wherein said platform comprises at least one support zone intended for holding a box on the vehicle , said at least one zone having means for centring the box and a means for attaching said box centrally located in said zone , the vehicle being characterized in that the attachment means comprises two locking members mounted so as to be movable on the platform between an inactive position for which they are aligned along a vertical axis Z and an active locking position for which they are positioned spaced apart from each other, the box having a complementary attachment means capable of cooperating with the attachment means and comprising an attachment wall secured to the box and provided with an opening, the box being positioned on the platform such that the two locking members have been inserted into the opening of the attachment wall in the inactive position and have then been deployed into said wall to retain the box against the platform , in that the centring means of a support zone comprise four blocks emerging from the platform and distributed at the four corners of a square, and in that the attachment means is unique and is placed at the centre of said square in order to hold the box between said four blocks. the vehicle being characterized in that the attachment means comprises two locking members mounted so as to be movable on the platform between an inactive position for which they are aligned along a vertical axis Z and an active locking position for which they are positioned spaced apart from each other, the box having a complementary attachment means capable of cooperating with the attachment means and comprising an attachment wall secured to the box and provided with an opening, the box being positioned on the platform such that the two locking members have been inserted into the opening of the attachment wall in the inactive position and have then been deployed into said wall to retain the box against the platform , in that the centring means of a support zone comprise four blocks emerging from the platform and distributed at the four corners of a square, and in that the attachment means is unique and is placed at the centre of said square in order to hold the box between said four blocks.