mhurhangee/patent-ind-claim-en huggingface dataset:
A combination of: (i) a helper-dependent adenovirus (HDAd) comprising nucleic acid encoding an antigen-binding molecule comprising: (a) an antigen-binding moiety specific for a CD3-TCR complex polypeptide, and (b) an antigen-binding moiety specific for CD44v6, HER2, or CD19; and (ii) an oncolytic adenovirus (OncAd), for use in a method of treating a cancer. (i) a helper-dependent adenovirus (HDAd) comprising nucleic acid encoding an antigen-binding molecule comprising: (a) an antigen-binding moiety specific for a CD3-TCR complex polypeptide, and (b) an antigen-binding moiety specific for CD44v6, HER2, or CD19; and (ii) an oncolytic adenovirus (OncAd), for use in a method of treating a cancer.
A process for treating a recycled polyolefin, comprising, in the given order, the steps of: a) providing a recycled polyolefin containing volatile organic compounds; b) contacting the recycled polyolefin with an emulsion (E) comprising: i) an aqueous phase having a pH in the range from 7.0 to 14.0; and ii) an organic phase comprising at least 90% v/v of one or more fully saturated organic solvents having logP values in the range from 1.0 to 10.0; c) removing the aqueous phase and the organic phase from the recycled polyolefin; and d) optionally recycling one, or both, of the aqueous phase and the organic phase, wherein the term "volatile organic compound" refers to any organic compound having an initial boiling point of less than or equal to 250 °C. a) providing a recycled polyolefin containing volatile organic compounds; b) contacting the recycled polyolefin with an emulsion (E) comprising: i) an aqueous phase having a pH in the range from 7.0 to 14.0; and ii) an organic phase comprising at least 90% v/v of one or more fully saturated organic solvents having logP values in the range from 1.0 to 10.0; i) an aqueous phase having a pH in the range from 7.0 to 14.0; and ii) an organic phase comprising at least 90% v/v of one or more fully saturated organic solvents having logP values in the range from 1.0 to 10.0; c) removing the aqueous phase and the organic phase from the recycled polyolefin; and d) optionally recycling one, or both, of the aqueous phase and the organic phase,
A method of producing a glass-ceramic article comprising a colored glass-based coating, comprising the steps of: - providing a substrate; - applying a layer-forming material onto a surface of the substrate, wherein the layer-forming material comprises at least one glass powder as the main consitutent, and wherein the glass powder consists of a base glass to which coloring crystallizable components are added which are fusible in the base glass and are crystallizable as inorganic color bodies upon cooling; - heating the coated substrate such that the glass powder melts and inorganic color bodies crystallize; - wherein the substrate is a glass-ceramic in the form of an already ceramized glass-ceramic or in the green-glass condition based on a lithium aluminosilicate glass and wherein the substrate in the ceramized condition comprises a thermal expansion (α 20/700 ) in the range of 20 °C to 700 °C of less than 2 • 10 -6 /K. - providing a substrate; - applying a layer-forming material onto a surface of the substrate, wherein the layer-forming material comprises at least one glass powder as the main consitutent, and wherein the glass powder consists of a base glass to which coloring crystallizable components are added which are fusible in the base glass and are crystallizable as inorganic color bodies upon cooling; - heating the coated substrate such that the glass powder melts and inorganic color bodies crystallize; - wherein the substrate is a glass-ceramic in the form of an already ceramized glass-ceramic or in the green-glass condition based on a lithium aluminosilicate glass and wherein the substrate in the ceramized condition comprises a thermal expansion (α 20/700 ) in the range of 20 °C to 700 °C of less than 2 • 10 -6 /K.
A space transportation system intended to embark a payload and be mounted on a space launcher , the transportation system comprising a fuselage extending mainly along a first direction, a first end , a second end opposite to the first end along the first direction, and a re-ignitable propulsion device located on said first end or on said second end , the transportation system comprising a plurality of steerable flaps located at said second end and a monitoring unit , each flap comprising an actuating means configured to modify the orientation of said flap at least in a plane parallel to the first direction, and said monitoring unit being configured to control the propulsion device and individually control each actuating means to monitor the orientation of each of the flaps in order to implement the following steps: - a launch step during which the propulsion device is off and the flaps are in a retracted position; - a return from space step during which the monitoring unit controls the actuating means to deploy the flaps and orient them to ensure the stability and pilot the transportation system , the propulsion device being off; - a landing step during which the monitoring unit controls the propulsion device and the actuating means to orient the flaps to slow down and perform a rollover of the transportation system . - a launch step during which the propulsion device is off and the flaps are in a retracted position; - a return from space step during which the monitoring unit controls the actuating means to deploy the flaps and orient them to ensure the stability and pilot the transportation system , the propulsion device being off; - a landing step during which the monitoring unit controls the propulsion device and the actuating means to orient the flaps to slow down and perform a rollover of the transportation system .
An insulated wire which uses an aluminum conductor, having: an adhesion layer formed by baking, on the aluminum conductor, varnish containing a carboxy group; an insulation layer as an outer layer of the adhesion layer; and a reinforcement insulation layer as an outer layer of the insulation layer ; wherein the adhesion layer is a thermosetting resin layer; and wherein the resin constituting the insulation layer is made of a thermosetting resin. an adhesion layer formed by baking, on the aluminum conductor, varnish containing a carboxy group; an insulation layer as an outer layer of the adhesion layer; and a reinforcement insulation layer as an outer layer of the insulation layer ; wherein the adhesion layer is a thermosetting resin layer; and wherein the resin constituting the insulation layer is made of a thermosetting resin.
Method for producing unidirectional carbon fibre cloth, comprising at least the following steps: - providing a number of precursors , each precursor comprising a plurality of individual filaments, - carbonizing the number of precursors to form a number of carbon fibre bundles , then - producing a unidirectional carbon fibre cloth from the number of carbon fibre bundles , and then - winding up the unidirectional carbon fibre cloth produced, wherein the step of producing the unidirectional carbon fibre cloth is carried out immediately after the carbonization step, and the step of producing the unidirectional carbon fibre cloth comprises a step of spreading the respective carbon fibre bundles to form a band of defined width and a step of connecting the spread carbon fibre bundles , and the spread carbon fibre bundles are connected to one another in their edge regions along the direction of their extent, wherein the connecting step is carried out by means of friction or vibrations, so that the individual filaments of two adjacent carbon fibre bundles spread out in the form of a band slide into one another or interengage. - providing a number of precursors , each precursor comprising a plurality of individual filaments, - carbonizing the number of precursors to form a number of carbon fibre bundles , then - producing a unidirectional carbon fibre cloth from the number of carbon fibre bundles , and then - winding up the unidirectional carbon fibre cloth produced,
Rotor for a squirrel-cage asynchronous rotating electrical machine, comprising two compaction elements clamping a cylindrical magnetic mass , short-circuit disks inserted between the magnetic mass and the compaction elements, and conductive bars housed in housings of the magnetic mass and evenly distributed over at least one diameter of the magnetic mass, so that the short-circuit disks and the conductive bars form a squirrel-cage, at least one of the compaction elements and the short-circuit disks comprising insertion holes each disposed facing a housing, characterised in that retention means are inserted into each insertion hole to retain the conductive bars in the housings.
A dry powder inhaler device comprising an outer body , an advancement mechanism housed in an inner part of the outer body, and a guide gear in this mechanism, said guide gear having a body provided with grooves into which blister cavities filled with a powder drug are placed, characterized in that - a planar surface is provided at the upper part of the guide gear , - said guide gear comprises at least one pocket formed on the planar surface of the guide gear, one edge of the pocket being open to at least one of the inner or outer edges of the guide gear, said pocket enabling to release or remove any powder drug accumulated therein, such that, during operation, the powder drug jammed between the upper surface of the guide gear and the inner surface of the outer body is removed. - a planar surface is provided at the upper part of the guide gear , - said guide gear comprises at least one pocket formed on the planar surface of the guide gear, one edge of the pocket being open to at least one of the inner or outer edges of the guide gear, said pocket enabling to release or remove any powder drug accumulated therein, such that, during operation, the powder drug jammed between the upper surface of the guide gear and the inner surface of the outer body is removed.
Turbine component comprising: - a single-crystal nickel-based superalloy substrate , and - a metallic bond coat covering the substrate , characterized in that the metallic bond coat comprises at least two elemental layers , including a first elemental layer and a second elemental layer, the first elemental layer being disposed between the substrate and the second elemental layer, each elemental layer comprising a γ'-Ni 3 Al phase and in that the average atomic fraction of aluminium in the second elemental layer is strictly higher than the average atomic fraction of aluminium in the first elemental layer. - a single-crystal nickel-based superalloy substrate , and - a metallic bond coat covering the substrate ,
A three-dimensional modeling device comprising: a plasticizing section configured to plasticize a material to generate a shaping material; a stage on which the shaping material is stacked; a nozzle which has a nozzle opening , and is configured to eject the shaping material from the nozzle opening toward a modeling area on the stage; a transfer mechanism section configured to change a relative position between the nozzle and the stage; and a heating section having a heater and a heating member configured to heat the shaping material stacked in the modeling area with heat supplied from the heater, wherein the nozzle opening is located between the stage and the heating section in a stacking direction (Z) of the shaping material, the heating section is configured so that a relative position to the stage changes together with the nozzle, and the heating member covers at least the modeling area when viewed along the stacking direction, characterized in that the three-dimensional modeling device further comprises an adjustment mechanism section configured to adjust a tilt of the heating member with respect to the stage . a plasticizing section configured to plasticize a material to generate a shaping material; a stage on which the shaping material is stacked; a nozzle which has a nozzle opening , and is configured to eject the shaping material from the nozzle opening toward a modeling area on the stage; a transfer mechanism section configured to change a relative position between the nozzle and the stage; and a heating section having a heater and a heating member configured to heat the shaping material stacked in the modeling area with heat supplied from the heater, wherein the nozzle opening is located between the stage and the heating section in a stacking direction (Z) of the shaping material, the heating section is configured so that a relative position to the stage changes together with the nozzle, and the heating member covers at least the modeling area when viewed along the stacking direction, characterized in that the three-dimensional modeling device further comprises an adjustment mechanism section configured to adjust a tilt of the heating member with respect to the stage .
A computer-implemented method for training a generative adversarial network, GAN, that includes a generator (G, 102) comprising a first neural network and a discriminator (D, 204) comprising a second neural network to predict steering angles for autonomous driving and a kernel function for predicting whether a sample is realistic or not, the method comprising: outputting , from the first neural network, generated samples ( x gen ) derived from a random noise vector; inputting , to the second neural network, the generated samples ( x gen ), a plurality of labelled training samples ( x lab ), and a plurality of unlabelled training samples ( x unl ); and outputting , from the second neural network, a predicted continuous label ( ŷ ) for each of a plurality of the generated samples ( x gen ) and unlabelled samples ( x unl ), wherein the second neural network outputs each continuous label ( ŷ ) as a normalized value, wherein the predicted continuous label ( ŷ ) is a predicted steering angle, wherein the labelled training samples ( x lab ) include a series of front camera image samples for a moving vehicle that are each labelled with a steering angle, inputting, to the kernel function , the predicted continuous label ( ŷ ) for each of a plurality of the generated samples ( x gen ) and unlabelled samples ( x unl ), wherein the kernel function outputs probability index value (D(x)) to each input continuous label representative of whether the predicted continuous labels ( ŷ ) for samples are realistic or not, wherein the discriminator outputs the predicted continuous labels ( ŷ ) and the probability index value ( D(x) ). outputting , from the first neural network, generated samples ( x gen ) derived from a random noise vector; inputting , to the second neural network, the generated samples ( x gen ), a plurality of labelled training samples ( x lab ), and a plurality of unlabelled training samples ( x unl ); and outputting , from the second neural network, a predicted continuous label ( ŷ ) for each of a plurality of the generated samples ( x gen ) and unlabelled samples ( x unl ), wherein the second neural network outputs each continuous label ( ŷ ) as a normalized value, wherein the predicted continuous label ( ŷ ) is a predicted steering angle, wherein the labelled training samples ( x lab ) include a series of front camera image samples for a moving vehicle that are each labelled with a steering angle, inputting, to the kernel function , the predicted continuous label ( ŷ ) for each of a plurality of the generated samples ( x gen ) and unlabelled samples ( x unl ), wherein the kernel function outputs probability index value (D(x)) to each input continuous label representative of whether the predicted continuous labels ( ŷ ) for samples are realistic or not, wherein the discriminator outputs the predicted continuous labels ( ŷ ) and the probability index value ( D(x) ).
A method for producing a concrete block comprising at least one multi-layered concrete block body having at least one even concrete block underside (2.1) and a substantially flat concrete block top side (2.2) opposite said underside, wherein the concrete block body comprises at least one first concrete block layer which is made of face concrete and forms the concrete block top side (2.2), at least one water-permeable second concrete block layer which is made of no-fines core concrete and adjoins the first concrete block layer , and a third concrete block layer which directly adjoins the second concrete block layer , wherein the third concrete block layer forms the concrete block underside (2.1) which is provided for resting on a bed layer of a subsoil, and wherein the second concrete block layer arranged between the first and third concrete block layers is designed to receive and store water, characterised in that after a formwork is provided, in a first step fine high-grit and/or high-sand concrete is introduced into the formwork to produce the third concrete block layer with a lower water permeability as compared to the second concrete block layer , wherein the no-fines core concrete is additionally introduced into the formwork in a second step to produce the water-permeable second concrete block layer , and wherein the face concrete is introduced into the formwork in a third step to produce the first concrete block layer , wherein the introduced concrete material is then compacted.
A luminaire comprising: a communication module configured to receive location data from a commissioning device , the location data used to determine luminaire location information; at least one solid-state light source configured to output light; and at least one modulator configured to modulate the light output to emit light-based communication (LCom) signals, wherein the luminaire when commissioned is configured to emit its luminaire location information via the LCom signals; characterized in that the luminaire is further configured to provide feedback to a user of the commissioning device to indicate at least one of: that the luminaire has not been commissioned yet; and that the luminaire has been moved. a communication module configured to receive location data from a commissioning device , the location data used to determine luminaire location information; at least one solid-state light source configured to output light; and at least one modulator configured to modulate the light output to emit light-based communication (LCom) signals, wherein the luminaire when commissioned is configured to emit its luminaire location information via the LCom signals; characterized in that the luminaire is further configured to provide feedback to a user of the commissioning device to indicate at least one of: that the luminaire has not been commissioned yet; and that the luminaire has been moved. wherein the luminaire when commissioned is configured to emit its luminaire location information via the LCom signals; characterized in that the luminaire is further configured to provide feedback to a user of the commissioning device to indicate at least one of: that the luminaire has not been commissioned yet; and that the luminaire has been moved. that the luminaire has not been commissioned yet; and that the luminaire has been moved.
A septum holder comprising: a disk shaped annular body having a cylindrical bottom part that projects downward, a cavity created in the bottom part of the body, an insert comprising at least one bore that forms a seat of a needle valve fitted into the cavity , at least one resilient elongated arm attached to a side of the body, the at least one arm projecting downward and terminating with a distal enlarged element , and a septum ; the septum being made of a single piece of cylindrically shaped resilient material, wherein an upper part of the septum has a hollow interior forming a cylindrical recess having an inner diameter no larger than that of an outer diameter of the cylindrical bottom part of the body of the septum holder , a lowest part of the septum has a diameter that matches that of a septum in a fluid transfer component, and the septum is adapted to be pushed over the bottom part of the body of the septum holder until a solid part of the septum below the recess butts against a bottom of the at least one bore in the insert .
A method of monitoring a solid component of a reactor feed stream in a polymer production system , comprising: (a) measuring a turbidity of the reactor feed stream, wherein the reactor feed stream comprises a solid component of a polymerization catalyst system, wherein the solid component comprises an activator support, wherein the activator support is fed to a precontactor , wherein the precontactor is configured to receive the polymerization catalyst system via one or more precontactor feed streams and wherein at least one of the precontactor feed streams comprises at least a portion of the activator support; and (b) translating the turbidity of the reactor feed stream into a concentration value of the solid component in the reactor feed stream, wherein said concentration value is subsequently used to calculate a mass balance across the precontactor to yield an amount of activator support in the precontactor . (a) measuring a turbidity of the reactor feed stream, wherein the reactor feed stream comprises a solid component of a polymerization catalyst system, wherein the solid component comprises an activator support, wherein the activator support is fed to a precontactor , wherein the precontactor is configured to receive the polymerization catalyst system via one or more precontactor feed streams and wherein at least one of the precontactor feed streams comprises at least a portion of the activator support; and (b) translating the turbidity of the reactor feed stream into a concentration value of the solid component in the reactor feed stream, wherein said concentration value is subsequently used to calculate a mass balance across the precontactor to yield an amount of activator support in the precontactor .
A canvas hanger profile for making a stretched ceiling in a room to be conditioned , the hanger profile comprising at least two wings connected together by a connecting lining , one of the wings being arranged to allow the fastening of the hanger profile on a wall of the room to be conditioned, a second wing, which constitutes a canvas hanger wing , being provided with a blocking end of a canvas hook , the connecting lining and the canvas hanger wing being arranged to define together an unclosed air passage slot through the profile and delimited by the blocking end of the canvas hanger wing hook , the profile having at least one through opening arranged to allow air to pass through said profile from or towards the slot , characterized in that the through opening is provided on the connecting lining .