mhurhangee/ep-ind-claims huggingface dataset:
Apparatus comprising a projection device (8; 11) for projecting an image, a transparent projection screen for displaying the projected image and a secondary image surface on an opposite side of the projection screen to the projector device (8; 11), light emitted from the projector device (8; 11) not only reflecting from the projection screen but also passing therethrough to form an unwanted secondary image (4; 13, 16) the same as the first-mentioned image displayed by reflected light from the projection screen, characterised in that said secondary image surface includes a plurality of reflective elements optically upstream from the secondary image surface serving to reduce the appearance of the unwanted secondary image (4; 13, 16) thereon.
Method for adjusting the starting torque during the starting in a vehicle, in which the increase (δM dr) in the actuably acting actual drive torque (M act) in the vehicle is limited to a maximum increase (δM max), characterized in that the maximum increase (δM max), in the actual driving torque (M act) depends on the inclination of the road, wherein the maximum increase (δM max) is reduced as the inclination of the road increases.
Bicycle saddle comprising a saddle shell, a saddle frame arranged on a lower side of the saddle shell, and a saddle cushion arranged on an upper side of the saddle shell, wherein the saddle cushion comprises at least two cushion elements (30, 32) overlapping each other at least partially, wherein a connection layer is arranged between at least two cushion elements (30, 32), characterized in that the connection layer is pre-tensioned in particular transversely to the longitudinal direction of the saddle. a saddle shell, a saddle frame arranged on a lower side of the saddle shell, and a saddle cushion arranged on an upper side of the saddle shell, wherein the saddle cushion comprises at least two cushion elements (30, 32) overlapping each other at least partially, wherein a connection layer is arranged between at least two cushion elements (30, 32), characterized in that the connection layer is pre-tensioned in particular transversely to the longitudinal direction of the saddle.
An antenna device comprising: an additively manufactured base portion, an additively manufactured body portion attached to the base portion, the body portion including a lattice stiffening structure, and an additively manufactured top portion connected to the body portion, wherein the lattice stiffening structure flares outward toward the top portion. an additively manufactured base portion, an additively manufactured body portion attached to the base portion, the body portion including a lattice stiffening structure, and an additively manufactured top portion connected to the body portion, wherein the lattice stiffening structure flares outward toward the top portion.
A curable composition comprising 100 parts by weight of a vinyl monomer and 0.1 to 100 parts by weight of fine polymer particles having a volume average particle size of 0.05 to 1 μm, said fine polymer particles being dispersed in the form of primary particles in said vinyl monomer, wherein the vinyl monomer comprises at least one (meth)acrylate monomer selected from the group consisting of a (meth)acrylate monomer synthesized from an alcohol having 3 or more carbon atoms and (meth)acrylic acid and hydroxyethyl (meth)acrylate, the amount of the (meth)acrylate monomer exceeds 50 wt% in the vinyl monomer, wherein said fine polymer particles are particles of a core/shell graft copolymer comprising at least two layers of an elastic core layer being present inside thereof and a shell layer being present at an outermost side thereof, wherein said shell layer comprises a copolymer of 100 wt% in total of shell layer monomers comprising 2 to 90 wt% of at least one monomer (BS-1) selected from the group consisting of an alkoxyalkyl (meth)acrylate, hydroxyalkyl (meth)acrylate and glycidyl (meth)acrylate, 2 to 98 wt% of at least one monomer (BS-2) selected from the group consisting of an alkyl (meth)acrylate, styrene, α-methylstyrene and (meth)acrylonitrile, 0 to 10 wt% of a polyfunctional vinyl monomer (BS-3), and 0 to 10 wt% of other vinyl monomer (BS-4) being copolymerizable with those monomers.
A double membrane pump, - wherein a first membrane is provided forming a wall of a first pump chamber, - wherein the first membrane is movable by means of a first mechanical drive means, - wherein a second membrane is provided forming a wall of a second pump chamber, - wherein the second membrane is movable by means of a second mechanical drive means that is independent from the first drive means, - wherein a control system for the drive means (15, 115) is provided that is configured and operable such that it controls the two drive means (15, 115) in dependence of one or more conditions. - wherein a first membrane is provided forming a wall of a first pump chamber, - wherein the first membrane is movable by means of a first mechanical drive means, - wherein a second membrane is provided forming a wall of a second pump chamber, - wherein the second membrane is movable by means of a second mechanical drive means that is independent from the first drive means, - wherein a control system for the drive means (15, 115) is provided that is configured and operable such that it controls the two drive means (15, 115) in dependence of one or more conditions.
A communications system, comprising: a master circuit comprising a master serial peripheral interface, SPI, device having an input MISC terminal; and a plurality of slave circuits (4a, 4b, 4c, 4d) coupled for communication with the master circuit, each comprising a slave SPI device, an activation terminal for activating the slave SPI device, and an output switch for connecting a MISO terminal of the slave SPI device to the input MISO terminal when activated, wherein the master circuit further comprises: a polling signal terminal for transmitting a polling signal to the activation terminals of at least a first group of the plurality of slave circuits for activating their respective slave SPI devices; and a plurality of output chip-select, CS, terminals (CS_0, CS_1, CS_2, CS_3), each independently activatable for transmitting a CS signal to both the activation terminal and the output switch of a respective one of the plurality of slave circuits for activating the respective slave SPI device and connecting its output MISO terminal for transmitting data to the input MISO terminal. a master circuit comprising a master serial peripheral interface, SPI, device having an input MISC terminal; and a plurality of slave circuits (4a, 4b, 4c, 4d) coupled for communication with the master circuit, each comprising a slave SPI device, an activation terminal for activating the slave SPI device, and an output switch for connecting a MISO terminal of the slave SPI device to the input MISO terminal when activated, wherein the master circuit further comprises: a polling signal terminal for transmitting a polling signal to the activation terminals of at least a first group of the plurality of slave circuits for activating their respective slave SPI devices; and a plurality of output chip-select, CS, terminals (CS_0, CS_1, CS_2, CS_3), each independently activatable for transmitting a CS signal to both the activation terminal and the output switch of a respective one of the plurality of slave circuits for activating the respective slave SPI device and connecting its output MISO terminal for transmitting data to the input MISO terminal. a polling signal terminal for transmitting a polling signal to the activation terminals of at least a first group of the plurality of slave circuits for activating their respective slave SPI devices; and a plurality of output chip-select, CS, terminals (CS_0, CS_1, CS_2, CS_3), each independently activatable for transmitting a CS signal to both the activation terminal and the output switch of a respective one of the plurality of slave circuits for activating the respective slave SPI device and connecting its output MISO terminal for transmitting data to the input MISO terminal.
A method of producing alpha-tocotrienol quinone of Formula I: or a stereoisomer thereof, the method comprising selective-opening of alpha-tocotrienol to alpha-tocotrienol quinone of Formula I in the presence of non-alpha-tocotrienols by oxidizing alpha-tocotrienol with a metal salt oxidizing agent wherein the metal salt oxidizing agent is an iron salt, wherein the stoichiometric ratio of metal salt oxidizing agent/alpha-tocotrienol is at least 4:1 and wherein said metal salt oxidizing agent is serially added in multiple portions, such that the metal salt oxidizing agent is added and the mixture is allowed to settle.
An aerosol comprising a plurality of aqueous droplets, each aqueous droplet of said plurality comprising an essentially neutral colloidal particle sized to fit inside the droplet, wherein the essentially neutral colloidal particle has surface zeta potential of between -15 mV and +15 mV; and wherein the essentially neutral particle further comprises an active pharmaceutical ingredient that is incorporated within, or attached to, the essentially neutral particle.
A portable ultrafiltration device in which a suction bellows is connected by a tube passing through a solenoid valve to a first dialysate connector of a hemofilter incorporated into a blood circuit itself consisting of arterial lines extending from a vascular access and passing through a peristaltic pump and of venous lines, and connecting to the vascular access, characterised in that the hemofilter has another dialysate connector that is connected to an ultrafiltration pressure sensor, the venous lines passing through an electronic safety block.
A method in a user equipment, UE, for providing channel state feedback from the UE to a base station via a Long Term Evolution, LTE, network, said method comprising the steps of: determining, for each one of plural different sets of radio bearer specific channel state feedback reporting trigger criteria that are applied for different types of channel state feedback reports, whether at least one radio bearer specific channel state feedback reporting trigger criteria included in the respective set is valid or not, wherein each radio bearer specific channel state feedback reporting trigger criteria is applied to one or more specific radio bearers; if more than one of said plural different sets includes a channel state feedback reporting trigger criteria that is valid, generating only one channel state feedback report on the basis of a prioritization rule that specifies how to prioritize between different types of channel state feedback reports; and transmitting said one channel state feedback report to the base station. determining, for each one of plural different sets of radio bearer specific channel state feedback reporting trigger criteria that are applied for different types of channel state feedback reports, whether at least one radio bearer specific channel state feedback reporting trigger criteria included in the respective set is valid or not, wherein each radio bearer specific channel state feedback reporting trigger criteria is applied to one or more specific radio bearers; if more than one of said plural different sets includes a channel state feedback reporting trigger criteria that is valid, generating only one channel state feedback report on the basis of a prioritization rule that specifies how to prioritize between different types of channel state feedback reports; and transmitting said one channel state feedback report to the base station.
Method for monitoring the state of a particulate filter arranged in an exhaust gas duct, by means of a measuring device arranged downstream of the particle filter, wherein the measuring device has a sensor and a particle-absorbing material which at least partially separates the sensor from an exhaust gas stream flowing through the particle filter, wherein the method comprises the following steps: - applying exhaust gas to the measuring device over a loading interval (I B); - detecting a pulsation (PU M) of a signal of the sensor or a variable (P M) derived from the signal; - comparing the pulsation (PU M) with a reference pulsation (PU R); - evaluating the state of the particle filter as a function of the comparison and the loading interval (I B), characterized in that - the sensor is a pressure sensor. - applying exhaust gas to the measuring device over a loading interval (I B); - detecting a pulsation (PU M) of a signal of the sensor or a variable (P M) derived from the signal; - comparing the pulsation (PU M) with a reference pulsation (PU R); - evaluating the state of the particle filter as a function of the comparison and the loading interval (I B), characterized in that - the sensor is a pressure sensor.
A production method of a ski-boot comprising a substantially shoe-shaped rigid shell adapted to accommodate the foot of the user and which comprises: a rigid casing shaped so as to accommodate and enclose the foot of the user, and a sole which is arranged to cover the bottom wall of the rigid casing and comprises at least one front plate-like portion (10, 20a) and a rear plate-like portion (10, 20b); the production method of the ski-boot being characterized by comprising the steps of: - realizing at least the front plate-like portion (10, 20a) of the sole of the rigid shell in a first thermoplastic material; - inserting the front plate-like portion (10, 20a) of the sole inside a first mold (100, 200) for the injection molding of plastic material, which is internally provided with a closed cavity (101, 201) that substantially copies in negative the shape of the rigid shell to be realized; - injecting a second thermoplastic material inside the closed cavity (101, 201) that already accommodates the front plate-like portion (10, 20a) of the sole, so that the second thermoplastic material can overlap the front plate-like portion (10, 20a) and fill the remaining empty space, so as to form the rigid casing of the rigid shell; and finally - extracting the resulting piece from the mold. - realizing at least the front plate-like portion (10, 20a) of the sole of the rigid shell in a first thermoplastic material; - inserting the front plate-like portion (10, 20a) of the sole inside a first mold (100, 200) for the injection molding of plastic material, which is internally provided with a closed cavity (101, 201) that substantially copies in negative the shape of the rigid shell to be realized; - injecting a second thermoplastic material inside the closed cavity (101, 201) that already accommodates the front plate-like portion (10, 20a) of the sole, so that the second thermoplastic material can overlap the front plate-like portion (10, 20a) and fill the remaining empty space, so as to form the rigid casing of the rigid shell; and finally - extracting the resulting piece from the mold.
A process for the preparation of 5-amino-2,3-dihydrophthalazine-1,4-dione or a salt thereof, comprising the steps of: treating 3-nitrophthalic acid with hydrazine hydrate to form 3-nitrophthalhydrazide; preparing a solution of the 3-nitrophthalhydrazide and sodium hydroxide in water; and hydrogenating the 3-nitrophthalhydrazide in the solution, thereby forming 5-amino-2,3-dihydrophthalazine-1,4-dione or a salt thereof, wherein each of 3-nitrophthalic acid, 3-nitrophthalhydrazide, and 5-amino-2,3-dihydrophthalazine-1,4-dione or a salt thereof have a purity of at least 90% as determined by High Pressure Liquid Chromatography (HPLC). treating 3-nitrophthalic acid with hydrazine hydrate to form 3-nitrophthalhydrazide; preparing a solution of the 3-nitrophthalhydrazide and sodium hydroxide in water; and hydrogenating the 3-nitrophthalhydrazide in the solution, thereby forming 5-amino-2,3-dihydrophthalazine-1,4-dione or a salt thereof, wherein each of 3-nitrophthalic acid, 3-nitrophthalhydrazide, and 5-amino-2,3-dihydrophthalazine-1,4-dione or a salt thereof have a purity of at least 90% as determined by High Pressure Liquid Chromatography (HPLC).
Installation for cleaning a drive system, said drive system comprising an internal combustion engine and a gas circulation circuit, the engine comprising a plurality of inlets configured for receiving products to be burned and an exhaust gas outlet, the gas circulation circuit comprising a plurality of pipes and a plurality of moving parts arranged together to feed to one of the inlets of the engine a gas mixture appropriate for the combustion, the cleaning installation comprising an injection device arranged to inject a cleaning fluid into one of the inlets of the engine, the installation being characterized in that it also comprises diagnostic means adapted to determine a level of soiling of the drive system as a function of intrinsic parameters of the drive system and control means for the injection device adapted to supply to the injection device cleaning parameters as a function of the level of soiling of the drive system.
A composition for use in a method of therapeutic treatment or therapeutic prevention of immune intolerance reactions towards a blood coagulation cascade protein antigen in an individual who has immune intolerance to said antigen, the composition comprising: lipidic particles comprising said antigen and a phospholipid composition selected from the group consisting of: i) phosphatidylcholine:phosphatidylinositol (PC:PI) in a ratio of 40:60 to 60:40; and ii) phosphatidyl serine:phosphatidylcholine (PS:PC) in a ratio of 10:90 to 30:70, and wherein said antigen is incorporated in the lipidic particles, wherein the subcutaneous administration of the composition results in inducing immune tolerance in the individual to said antigen and wherein the method of treatment further comprises determining that said use results in an increase in TGF-β or IL-10, or a reduction in IL-6, IL-17, CD40, CD80, or CD86 as an indication that immune tolerance to the antigen has been induced. lipidic particles comprising said antigen and a phospholipid composition selected from the group consisting of: i) phosphatidylcholine:phosphatidylinositol (PC:PI) in a ratio of 40:60 to 60:40; and ii) phosphatidyl serine:phosphatidylcholine (PS:PC) in a ratio of 10:90 to 30:70, and i) phosphatidylcholine:phosphatidylinositol (PC:PI) in a ratio of 40:60 to 60:40; and ii) phosphatidyl serine:phosphatidylcholine (PS:PC) in a ratio of 10:90 to 30:70, and wherein said antigen is incorporated in the lipidic particles, wherein the subcutaneous administration of the composition results in inducing immune tolerance in the individual to said antigen and wherein the method of treatment further comprises determining that said use results in an increase in TGF-β or IL-10, or a reduction in IL-6, IL-17, CD40, CD80, or CD86 as an indication that immune tolerance to the antigen has been induced.
A system for forming a stent of a desired length at an endoluminal site, the system comprising: an elongate stent body severable into a deployed portion and an undeployed portion thereof and including a marking pattern along a length thereof, the stent body including a central lumen sized to receive a wire guide; an outer sheath overlying the stent body, the outer sheath including a primary lumen and a secondary lumen, the stent body being slidingly disposed within the primary lumen; in a substantially straight but pliable configuration and comprising a coiled configuration at an endoluminal treatment site; an endoluminal cutting mechanism comprising a wire in a snare or noose configuration operatively connected to a drive cable slidingly disposed within the secondary lumen of the outer sheath, wherein the cutting mechanism is configured to sever the stent body into the deployed portion and the undeployed portion in response to motion of the drive cable within the secondary lumen and wherein the marking pattern is adapted to enable the clinician to gauge the length of each of the deployed portion and the undeployed portion of the stent body. an elongate stent body severable into a deployed portion and an undeployed portion thereof and including a marking pattern along a length thereof, the stent body including a central lumen sized to receive a wire guide; an outer sheath overlying the stent body, the outer sheath including a primary lumen and a secondary lumen, the stent body being slidingly disposed within the primary lumen; in a substantially straight but pliable configuration and comprising a coiled configuration at an endoluminal treatment site; an endoluminal cutting mechanism comprising a wire in a snare or noose configuration operatively connected to a drive cable slidingly disposed within the secondary lumen of the outer sheath, wherein the cutting mechanism is configured to sever the stent body into the deployed portion and the undeployed portion in response to motion of the drive cable within the secondary lumen and wherein the marking pattern is adapted to enable the clinician to gauge the length of each of the deployed portion and the undeployed portion of the stent body.
A cemented carbide body comprising: tungsten carbide grains; a binder matrix material comprising or consisting of any of cobalt, nickel and iron or a mixture thereof, wherein the tungsten carbide grains are disposed in the binder matrix material; the binder matrix material further comprising or consisting of tantalum-containing inclusions, the tantalum-containing inclusions being carbide nanoparticles or intermetallic nanoparticles, the tantalum-containing inclusions having the shape that is any one of spherical, platelet-like or needle-like, the tantalum content being between 1.5 weight per cent and 15 weight per cent of the binder content; and wherein the tantalum-containing inclusions have a mean largest linear dimension of no more than 80 nm, and characterized in that the cemented carbide body is free of Ta-containing grains having a largest linear dimension greater than 500nm as determined using Transmission Electron Microscopy and high resolution Transmission Electron Microscopy.
A skin sanitization product, comprising: a) a first part comprising first hydrophobized colloidal particles, said first hydrophobized colloidal particles containing first microdroplets, said first microdroplets comprising a first aqueous solution of a peroxide, a first acid and water to form a first encapsulate containing a first reaction element; and b) at least a second part comprising second hydrophobized colloidal particles, said second hydrophobized colloidal particles containing second microdroplets, said second microdroplets comprising a second aqueous solution of a salt of a transition metal, a second acid and water to form a second encapsulate containing a second reaction element; and wherein in use said first and second parts are mixed together on a user's skin to form a mixture and upon being subjected to mechanical action said first and second encapsulates are broken, releasing and mixing said first and second reaction elements. a) a first part comprising first hydrophobized colloidal particles, said first hydrophobized colloidal particles containing first microdroplets, said first microdroplets comprising a first aqueous solution of a peroxide, a first acid and water to form a first encapsulate containing a first reaction element; and b) at least a second part comprising second hydrophobized colloidal particles, said second hydrophobized colloidal particles containing second microdroplets, said second microdroplets comprising a second aqueous solution of a salt of a transition metal, a second acid and water to form a second encapsulate containing a second reaction element; and
An in situ-forming injectable hydrogel, represented by the following Chemical Formula 2, in which two or more homogeneous or heterogeneous polymers, represented by the following Chemical Formula 1, are bonded to each other by a dehydrogenation reaction between phenol or aniline moieties on adjacent polymers, wherein a polymer backbone is grafted with a phenol or aniline moiety using a linker. wherein, R is hydroxyl or amine; and L is a hydrophilic polymer chain.